MLX x24 IR array

Size: px
Start display at page:

Download "MLX x24 IR array"

Transcription

1 1. Features and Benefits Small size, low cost 32x24 pixels IR array Easy to integrate Industry standard four lead TO39 package Factory calibrated Noise Equivalent Temperature Difference (NETD) 0.1K refresh rate I 2 C compatible digital interface Programmable refresh rate 0.5Hz 64Hz 3.3V supply voltage Current consumption less than 23mA 2 FOV options 55 x35 and 110 x75 Operating temperature -40 C 85 C Target temperature -40 C 300 C Complies with RoHS regulations 2. Application Examples High precision non-contact temperature measurements Intrusion / Movement detection Presence detection / Person localization Temperature sensing element for residential, commercial and industrial building air conditioning Thermal Comfort sensor in automotive Air Conditioning control system Passenger classification Microwave ovens Industrial temperature control of moving parts Visual IR thermometers 3. Description The MLX90640 is a fully calibrated 32x24 pixels thermal IR array in an industry standard 4-lead TO39 package with digital interface. The MLX90640 contains 768 FIR pixels. An ambient sensor is integrated to measure the ambient temperature of the chip and supply sensor to measure the VDD. The outputs of all sensors IR, Ta and VDD are stored in internal RAM and are accessible through I 2 C. Figure 1 Block diagram

2 Contents 1. Features and Benefits Application Examples Description Ordering Information Glossary of Terms Pin Definitions and Descriptions Absolute Maximum Ratings General Electrical Specifications False pixel correction Detailed General Description Pixel position Communication protocol Low level Device modes Normal mode Step mode Refresh rate Measurement flow Reading patterns Address map Internal registers RAM EEPROM Calculating Object Temperature Restoring calibration data from EERPOM Restoring the VDD sensor parameters Restoring the Ta sensor parameters Restoring the offset Restoring the Sensitivity, Restoring the Kv(i,j) coefficient Restoring the Kta(i,j) coefficient Page 2 of 60

3 Restoring the GAIN coefficient (common for all pixels) Restoring the KsTa coefficient (common for all pixels) Restoring corner temperatures (common for all pixel) Restoring the KsTo coefficient (common for all pixels) Restoring sensitivity correction coefficients for each temperature range Restoring the Sensitivity Restoring the offset of the Compensation Pixel (CP) Restoring the Kv CP coefficient Restoring the Kta CP coefficient Restoring the TGC coefficient Restoring the resolution control coefficient Temperature Calculation Example Input Data Temperature calculation Performance graphs Accuracy Startup time First valid data Thermal behavior Noise performance and resolution Field of view (FOV) Application information Electrical considerations Using the device in image mode Application Comments Mechanical drawings FOV FOV Device marking Standard Information ESD Precautions Contact Disclaimer Page 3 of 60

4 Tables Table 1 Ordering information... 6 Table 2 Glosarry of terms... 7 Table 3 Pin definition... 8 Table 4 Absolute maximum ratings... 8 Table 5 Electrical specification... 9 Table 6 Priorities of subpage controls...17 Table 7 Configuration parameters memory...19 Table 8 EEPROM to registers mapping...19 Table 9 EEPROM overview (words)...20 Table 10 Calibration parameters memory (EEPROM - bits)...21 Table 11 Calculation example input data...30 Table 12 Calculation example calibration data...34 Table 13 XOR truth table...42 Table 14 Noise performance...51 Table 15 Available FOV options...52 Figures Figure 1 Block diagram... 1 Figure 2 MLX90640 Overview and pin description... 8 Figure 3 Pixel in the whole FOV...10 Figure 4 I 2 C write command format (default SA=0x33 is used)...11 Figure 5 I 2 C read command format (default SA=0x33 is used)...11 Figure 6 Refresh rate timing...12 Figure 7 Recommended measurement flow...13 Figure 8 Step mode measurement flow...14 Figure 9 TV mode reading pattern (only highlighted cells are updated)...15 Figure 10 Chess reading pattern (only highlighted cells are updated)...15 Figure 11 MXL90640 memory map...16 Figure 12 Status register (0x8000) bits meaning...16 Figure 13 Control register1 (0x800D) bits meaning...17 Figure 14 I 2 C configuration register (0x800F) bits meaning...18 Figure 15 RAM memory map (Chess pattern mode) factory default mode...18 Figure 16 RAM memory map (Interleaved mode)...18 Figure 17 To calculation flow...35 Figure 18 Absolute temperature accuracy MLX90640BAA (left) and MLX90640BAB (right)...47 Figure 19 Different accuracy zones depending on device type (BAA on the left and BAB on the right)...48 Figure 20 MLX90640BAx noise vs refresh rate for different device types...50 Figure 21 MLX90640BAA noise vs pixel and refresh rate at 1Hz and 2Hz...50 Figure 22 MLX90640BAA noise vs pixel and refresh rate at 4Hz, 8Hz and 16Hz...50 Figure 23 MLX90640BAB noise vs pixel and refresh rate at 1Hz and 2Hz...51 Figure 24 MLX90640BAB noise vs pixel and refresh rate at 4Hz, 8Hz and 16Hz...51 Figure 25: Field Of View measurement...52 Figure 26 MLX90640 electrical connections...53 Page 4 of 60

5 Figure 27 Calculation flow in thermal image mode...54 Figure 28 Mechanical drawing of 55 FOV device...56 Figure 29 Mechanical drawing of 110 FOV device...57 Page 5 of 60

6 4. Ordering Information Product Temperature Package Option Code Custom Configuration Packing Form Definition MLX90640 E SF BAA 000 TU 32x24 IR array MLX90640 E SF BAB 000 TU 32x24 IR array Legend: Temperature Code: E: -40 C to 85 C Package Code: SF for TO39 package Option Code: xax TGC is disabled and may not be changed Option Code: xxa FOV = 110 x75 xxb FOV = 55 x35 Custom configuration 000 standard product Packing Form: TU - Tubes Ordering Example: MLX90640ESF-BAA-000-TU Table 1 Ordering information Page 6 of 60

7 5. Glossary of Terms TC POR IR Ta IR data ADC TGC FOV nfov I 2 C SDA SCL LSB MSB Fps MD SD ASP DSP ESD EMC CP NC NA TBD Temperature Coefficient (in ppm/ C) Power On Reset Infra-Red Ambient Temperature the temperature of the TO39 package Infrared data (raw data from ADC proportional to IR energy received by the sensor) Analog To Digital Converter Temperature Gradient Coefficient Field Of View Field Of View of the N-th pixel Inter-Integrated Circuit communication protocol Serial Data Serial Clock Least Significant Bit Most Significant Bit Frames per Second data refresh rate Master Device Slave Device Analog Signal Processing Digital Signal Processing Electro Static Discharge Electro Magnetic Compatibility Compensation Pixel Not Connected Not Applicable To Be Defined Table 2 Glosarry of terms Page 7 of 60

8 6. Pin Definitions and Descriptions Pin # Name Description 1 SDA I 2 C serial data (input/ output) 2 VDD Positive supply 3 GND Negative supply (Ground) 4 SCL I 2 C serial clock (input only) Table 3 Pin definition Figure 2 MLX90640 Overview and pin description 7. Absolute Maximum Ratings Parameter Symbol Min. Typ. Max. Unit Remark Supply Voltage (over voltage) V DD 5 V Supply Voltage (operating max voltage) V DD 3.6 Reverse Voltage (each pin) -0.3 V Operating Temperature T AMB C Storage Temperature T ST C Not in plastic tubes ESD sensitivity (AEC Q ) 2 kv SDA DC sink current 40 ma Table 4 Absolute maximum ratings Exceeding the absolute maximum ratings may cause permanent damage. Exposure to absolute maximum-rated conditions for extended periods may affect device reliability. Page 8 of 60

9 8. General Electrical Specifications Electrical Parameter Symbol Min. Typ. Max. Unit Condition Supply Voltage V DD V Supply Current I DD ma POR level up analog V POR_UP V VDD rising POR level down analog V POR_DOWN 2.55 V VDD falling POR hysteresis V POR_hys 50 mv Default I 2 C address 0x01 0x33 0xFF Input high voltage (SDA, SCL) Input low voltage (SDA, SCL) V IH 0.7*V DD V Over Ta and V DD V LOW 0.3*V DD V Over Ta and V DD SDA output low voltage V OL 0.4 V Over Ta and V DD I SINK =3mA SDA leakage I SDA_leak ± 10 µa V SDA =3.6V, Ta=85 C SCL leakage I SCL_leak ± 10 µa V SCL =3.6V, Ta=85 C SDA capacitance C SDA 10 pf SCL capacitance C SCL 10 pf Acknowledge setup time T SUAC(MD) 0.45 µs Acknowledge hold time T DUAC(MD) 0.45 µs Acknowledge setup time T SUAC(SD) 0.45 µs Acknowledge hold time T DUAC(SD) 0.45 µs I 2 C clock frequency F I2C MHz EEPROM erase/write cycles 10 times Write cell time T WRITE 5 ms Table 5 Electrical specification NOTE: For best performance it is recommended to keep the supply voltage as accurate and stable as possible to 3.3V ± 0.1V NOTE 2: When a data in EEPROM cell to be changed an erase (write 0x0000) must be done prior to writing the new value. After each write at least 5ms delay is needed in order to writing process to take place. NOTE 3: Slave address 0x00 must be avoided. Page 9 of 60

10 9. False pixel correction The imager can have up to 4 defective pixels, with either no output or out of specification temperature reading. These pixels are identified in the EEPROM table of the sensor and can be read out through the I 2 C. The defective pixel result can be replaced by an interpolation of its neighboring pixels. 10. Detailed General Description Pixel position The array consists of 768 IR sensors (also called pixels). Each pixel is identified with its row and column position as Pix(i,j) where i is its row number (from 1 to 24) and j is its column number (from 1 to 32) Col 32 Col 3 Col 2 Col 1 Row 1 Row 2 Row 3 Row 24 VDD 0 GND SDA SCL Reference tab Figure 3 Pixel in the whole FOV Page 10 of 60

11 10.2. Communication protocol The device use I 2 C protocol with support of FM+ mode (up to 1MHz clock frequency) and can be only slave on the bus. The SDA and SCL ports are 5V tolerant and the sensor can be directly connected to a 5V I 2 C network. The slave address is programmable and can have up to 127 different slave addresses Low level Start / Stop conditions Each communication session is initiated by a START condition and ends with a STOP condition. A START condition is initiated by a HIGH to LOW transition of the SDA while a STOP is generated by a LOW to HIGH transition. Both changes must be done while the SCL is HIGH Device addressing The master is addressing the slave device by sending a 7-bit slave address after the START condition. The first seven bits are dedicated for the address and the 8 th is Read/Write (R/W) bit. This bit indicates the direction of the transfer: Read (HIGH) means that the master will read the data from the slave Write (LOW) means that the master will send data to the slave Acknowledge During the 9 th clock following every byte transfer the transmitter releases the SDA line. The receiver acknowledges (ACK) receiving the byte by pulling SDA line to low or does not acknowledge (NoACK) by letting the SDA HIGH I 2 C command format Slave address I 2 C write SDA SCL MSByte address LSByte address MSByte data LSByte data S W A A A A A P Figure 4 I 2 C write command format (default SA=0x33 is used) Slave address Slave address MSByte address LSByte address MSByte data LSByte data SDA I 2 C read S W A A A S R A A NAK P SCL Figure 5 I 2 C read command format (default SA=0x33 is used) Page 11 of 60

12 10.3. Device modes The device can operate in following modes: Normal mode Step mode Normal mode In this mode the measurements are constantly running. Depending on the selected frame rate Fps in the control register, the data for IR pixels and Ta will be updated in the RAM each second. In this mode the external microcontroller has full access to the internal registers and memories of the device Step mode This mode is foreseen for single measurements triggered by an external device (microcontroller). Entering this mode is possible by writing the appropriate code in the configuration register. A measurement is triggered by setting the start measurement bit to 1 in status register. The measurement time is A flag bit in Status register (bit 0x03) is dedicated in order to be able to check whenever the measurement is done Refresh rate The refresh rate is configured by Control register 1 (0x800D) i.e. if Refresh rate control = 011 4Hz this would mean that each 250ms a new subpage data is available in the RAM. NOTE: It is possible to program the desired refresh rate into device EEPROM eliminating the necessity to reconfigure the device every time it is powered on. The corresponding EEPROM cell is at address 0x240C (see Table 8) Which subpage is updated is indicated by the Last measured subpage field. It is important to read both subpages as the necessary information for the Ta calculations is only available by combining the data from both subpages i.e. the Ta is refreshed with an update speed twice as low as the one set in Refresh rate control. When a complete new data set (subpage) is available, a dedicated bit is set to indicate this bit 3 New data available in RAM in Status register (0x8000). It is up to the customer to reset the bit once the data has been read. Set bit New data available in RAM Subpage 0 Subpage 1 Subpage 0 Subpage 1 250ms 250ms 250ms 250ms Refresh rate control = 011b (4Hz) Figure 6 Refresh rate timing Page 12 of 60

13 10.5. Measurement flow Following measurement flow is recommended: Measurement Flow POR Wait 80ms + delay determined by the refresh rate 0.5 Hz 4 sec 1 Hz 2 sec 2 Hz 1 sec. 64 Hz sec Just once after POR Extract calibration data from EEPROM and store in RAM Absolute temp measurement? Yes No Wait app 4 min Sub frame 0 Read meas data Clear bit New data available in RAM -Bit3 in 0x8000 Calculate the temperature of the sub frame 0 Image processing decision making Step mode? No Yes Set Start Of Measurement Bit5 in 0x8000 Wait time determined by RR 20% Is New data available in RAM set No Yes Sub frame 1 Read meas data Clear bit New data available in RAM -Bit3 in 0x8000 Calculate the temperature of the sub frame 1 Image processing decision making Step mode? No Yes Set Start Of Measurement Bit5 in 0x8000 Wait time determined by RR 20% Yes Is New data available in RAM set No Figure 7 Recommended measurement flow Page 13 of 60

14 In case a step mode is used following flow is recommended: Step mode No Step Mode? Continuous mode No Start measurement Measurement end? Note: In step mode the measurement end could be determined in 3 ways: 1.Introducing an appropriate delay; 2.By polling the flags (configuration IO at 0x92, bits 8 and 9) 3.Combination of 1. and 2. Yes Read measurement data (desired IR data + PTAT) Figure 8 Step mode measurement flow Reading patterns The array frame is divided in two subpages and depending of bit 12 in Control register 1 (0x800D) Reading pattern there are two modes of the pixel arrangement: - Chess pattern mode (factory default) - TV interleave mode NOTE1: As a standard the MLX90640 is calibrated in Chess pattern mode, this results in better fixed pattern noise behaviour of the sensor when in chess pattern mode. For best results Melexis advices to use chess pattern mode. NOTE2: Please make sure a proper configuration of the subpage control bit is done. See: Table 6 Priorities of subpage controls Page 14 of 60

15 Subpage 0 --> 0x8000 = 0xXXX8 Subpage 1 --> 0x8000 = 0xXXX9 0x x x x x x x x x x x04A x04A x04C x04C x04E x04E x x x x x x x x x x x05A x05A x05C x05C x05E x05E x x x x x x x x x x x06A x06A x06C x06C x06E x06E Figure 9 TV mode reading pattern (only highlighted cells are updated) Subpage 0 --> 0x8000 = 0xXXX8 Subpage 1 --> 0x8000 = 0xXXX9 0x x x x x x x x x x x04A x04A x04C x04C x04E x04E x x x x x x x x x x x05A x05A x05C x05C x05E x05E x x x x x x x x x x x06A x06A x06C x06C x06E x06E Figure 10 Chess reading pattern (only highlighted cells are updated) Page 15 of 60

16 10.7. Address map 0x0000 0x03FF 0x0400 0x07FF 0x2400 0x273F 0x8000 0x800C 0x800D 0x8010 0x8011 0x8016 ROM RAM EEPROM Registers (MLX reserved) Registers Registers (MLX reserved) Figure 11 MXL90640 memory map Internal registers There are a few internal registers that are customer accessible through which the device performance can be customized: B15 B14 B13 B12 B11 B10 B9 B8 B7 B6 B5 B4 B3 B2 B1 B0 Melexis reserved Measurement start Enable overwrite New data available in RAM Last measured subpage controlled by MLX90641 Status register - 0x Measurement of subpage 0 has been done Measurement of subpage 1 has been done Melxis reserved Melxis reserved Melxis reserved Melxis reserved Melxis reserved Melxis reserved 0 No new data is available in RAM (must be reset be the customer) 1 A new data is available in RAM 0 Data in RAM overwrite is disabled 1 Data in RAM overwrite is enabled 0 In step mode - no next measurement is scheduled (must be set by the customer) 1 In step mode - start of measurement (set by the customer and cleared once the measurement is done) Melexis reserved Figure 12 Status register (0x8000) bits meaning Page 16 of 60

17 B15 B14 B13 B12 B11 B10 B9 B8 B7 B6 B5 B4 B3 B2 B1 B0 Melexis reserved Reading pattern Resolution control Refresh rate control Select subpage Enable subpages repeat Enable data hold enable step mode Enable subpages mode Control register 1-0x800D 0 No subpages, only one page will be measured 1 Subpade mode is activated (default) 0 Device is in continuous mode (default) 1 Step mode activated. Only one measurement is done and wait for next command 0 Transfer the data into storage RAM at each measured frame (default) 1 Transfer the data into storage RAM only if en_overwrite = 1 (check 0x8000) 0 Only sub pade 0 will be measured (default) 1 Active only if en_sub_page=1 then sel_sub_page determines which subpage to be measured Subpage 0 is selected (default) Subpage 1 is selected Not Applicable Not Applicable Not Applicable Not Applicable Not Applicable Not Applicable IR refresh rate = 0.5Hz IR refresh rate = 1Hz IR refresh rate = 2Hz (default) IR refresh rate = 4Hz IR refresh rate = 8Hz IR refresh rate = 16Hz IR refresh rate = 32Hz IR refresh rate = 64Hz 0 0 ADC set to 16 bit resolution 0 1 ADC set to 17 bit resolution 1 0 ADC set to 18 bit resolution (default) 1 1 ADC set to 19 bit resolution 0 Interleaved (TV) mode 1 Chess pattern (default) Melexis reserved Figure 13 Control register1 (0x800D) bits meaning Enable subpage mode (Bit 0) Enable subpage repeat (Bit 3) Select subpage (Bit 4) Working mode measure subpage 0 only measure subpage 0 only measure subpage 0 only measure subpage 1 only Table 6 Priorities of subpage controls Page 17 of 60

18 B7 B6 B5 B4 B3 B2 B1 B0 B7 B6 B5 B4 B3 B2 B1 B0 Melexis reserved Melexis reserved SDA driver current limit control I2C threshold levels FM+ disable I2C configuration register - 0x800F 0 FM+ mode enabled (default) 1 FM+ mode disabled 0 VDD reffered threshold (normal mode) (default) 1 1.8V reffered threshold (1.8V mode) 0 SDA driver current limit is ON (default) 1 SDA driver current limit is OFF 0 Melexis reserved Melexis reserved Figure 14 I 2 C configuration register (0x800F) bits meaning RAM 0x x041F 0x x043F 0x x045F 0x0460 0x06A0 0x06C x047F 0x06BF x06DF 0x06E x06FF 0x0700 0x0700=Ta_Vbe, 0x0708=CP(SP 0), 0x070A=GAIN Melexis reserved 0x071F 0x0720 0x0720=Ta_PTAT, 0x0728=CP(SP1), 0x072A=VDDpix Melexis reserved 0x073F Subpage 0 Subpage 1 Figure 15 RAM memory map (Chess pattern mode) factory default mode 0x0400 0x0420 0x0440 0x0460 0x06A0 0x06C0 0x06E0 Pixels 1 32 (subpage 0) Pixels (subpage 1) Pixels (subpage 0) Pixels (subpage 0) Pixels (subpage 1) 0x041F 0x043F 0x045F 0x047F 0x06BF 0x06DF 0x06FF 0x0700 0x0700=Ta_Vbe, 0x0708=CP(SP 0), 0x070A=GAIN Melexis reserved 0x071F 0x0720 0x0720=Ta_PTAT, 0x0728=CP(SP1), 0x072A=VDDpix Melexis reserved 0x073F Figure 16 RAM memory map (Interleaved mode) Page 18 of 60

19 EEPROM The EEPROM is used to store the calibration constants and the configuration parameters of the device EEPROM address Access Meaning 0x2400 Melexis Melexis reserved 0x2401 Melexis Melexis reserved 0x2402 Melexis Melexis reserved 0x2403 Melexis Configuration register 0x2404 Melexis Melexis reserved 0x2405 Melexis Melexis reserved 0x2406 Melexis Melexis reserved 0x2407 Melexis Device ID1 0x2408 Melexis Device ID2 0x2409 Melexis Device ID3 0x240A Melexis Device Options 0x240B Melexis Melexis reserved 0x240C Customer Control register_1 0x240D Customer Control register_2 0x240E Customer I2CConfReg 0x240F Customer Melexis reserved / I2C_Address Table 7 Configuration parameters memory After POR the device read dedicated EEPROM cells and transfers their content to into the control and configuration register of the device. This way the device is configured and prepared for operation. The relation between EEPROM and register address is shown here after (explanation of the bit meaning can be found in section Internal registers: EEPROM address Register address Access Name Data [hex] 0x240C 0x800D Customer Control_register_ x240D 0x800E Customer Control_register_ x240E 0x800F Customer I2CConfReg x240F 0x8010 Customer Melexis internal use (8 bit) I2C_Address (8bit) BE33 Table 8 EEPROM to registers mapping Page 19 of 60

20 Address A B C D E F 0x2400 Osc Trim Ana Trim MLX Conf reg MLX MLX MLX ID 1 ID 2 ID 3 MLX MLX Cont reg 1 Cont reg 2 I2C conf I2C add 0x2410 Scale OCC Pix os avg OCC_row_01 24 (6 x 4 x 3bit+sign) OCC_column_01 32 (8 x 4 x 3bit+sign) 0x2420 Scale ACC Pix α avg ACC_row_01 24 (6 x 4 x 3bit+sign) ACC_column_01 32 (8 x 4 x 3bit+sign) 0x2430 GAIN PTAT_25 Kv, Kt ptat Kv Vdd_25 Kv_avg MLX Kta_avg Kv, Kta Sca ACP 1,2 Off - CP1,2 Kv, Kta Cp KsTa, TGC KsTo 4, 3 KsTo 2, 1 CT 4, 3 0x2440 0x2450 0x2460 0x2470 0x2480 0x2490 0x24A0 0x24B0 0x24C0 0x24D0 0x24E0 0x24F0 0x2500 0x2510 0x2520 0x2530 0x2540 0x2550 0x2560 0x2570 0x2580 0x2590 0x25A0 0x25B0 0x25C0 768 x Offset, α, Kta, Outlier 0x25D0 0x25E0 0x25F0 0x2600 0x2610 0x2620 0x2630 0x2640 0x2650 0x2660 0x2670 0x2680 0x2690 0x26A0 0x26B0 0x26C0 0x26D0 0x26E0 0x26F0 0x2700 0x2710 0x2720 0x2730 Table 9 EEPROM overview (words) Page 20 of 60

21 Address \ bit x2410 (Alpha PTAT - 8)*4 scale_occ_row scale_occ_col scale_occ_rem 0x2411 ± Pix_os_average 0x2412 ± OCC row 4 ± OCC row 3 ± OCC row 2 ± OCC row 1 0x2413 ± OCC row 8 ± OCC row 7 ± OCC row 6 ± OCC row 5 0x2414 ± OCC row 12 ± OCC row 11 ± OCC row 10 ± OCC row 9 0x2415 ± OCC row 16 ± OCC row 15 ± OCC row 14 ± OCC row 13 0x2416 ± OCC row 20 ± OCC row 19 ± OCC row 18 ± OCC row 17 0x2417 ± OCC row 24 ± OCC row 23 ± OCC row 22 ± OCC row 21 0x2418 ± OCC column 4 ± OCC column 3 ± OCC column 2 ± OCC column 1 0x2419 ± OCC column 8 ± OCC column 7 ± OCC column 6 ± OCC column 5 0x241A ± OCC column 12 ± OCC column 11 ± OCC column 10 ± OCC column 9 0x241B ± OCC column 16 ± OCC column 15 ± OCC column 14 ± OCC column 13 0x241C ± OCC column 20 ± OCC column 19 ± OCC column 18 ± OCC column 17 0x241D ± OCC column 24 ± OCC column 23 ± OCC column 22 ± OCC column 21 0x241E ± OCC column 28 ± OCC column 27 ± OCC column 26 ± OCC column 25 0x241F ± OCC column 32 ± OCC column 31 ± OCC column 30 ± OCC column 29 0x2420 Alpha scale - 30 Scale_ACC_row Scale_ACC_column Scale_ACC_remnand 0x2421 Pix_sensitivity_average 0x2422 ± ACC row 4 ± ACC row 3 ± ACC row 2 ± ACC row 1 0x2423 ± ACC row 8 ± ACC row 7 ± ACC row 6 ± ACC row 5 0x2424 ± ACC row 12 ± ACC row 11 ± ACC row 10 ± ACC row 9 0x2425 ± ACC row 16 ± ACC row 15 ± ACC row 14 ± ACC row 13 0x2426 ± ACC row 20 ± ACC row 19 ± ACC row 18 ± ACC row 17 0x2427 ± ACC row 24 ± ACC row 23 ± ACC row 22 ± ACC row 21 0x2428 ± ACC column 4 ± ACC column 3 ± ACC column 2 ± ACC column 1 0x2429 ± ACC column 8 ± ACC column 7 ± ACC column 6 ± ACC column 5 0x242A ± ACC column 12 ± ACC column 11 ± ACC column 10 ± ACC column 9 0x242B ± ACC column 16 ± ACC column 15 ± ACC column 14 ± ACC column 13 0x242C ± ACC column 20 ± ACC column 19 ± ACC column 18 ± ACC column 17 0x242D ± ACC column 24 ± ACC column 23 ± ACC column 22 ± ACC column 21 0x242E ± ACC column 28 ± ACC column 27 ± ACC column 26 ± ACC column 25 0x242F ± ACC column 32 ± ACC column 31 ± ACC column 30 ± ACC column 29 0x2430 0x2431 ± GAIN ± PTAT_25 0x2432 ± Kv_PTAT ± Kt_PTAT 0x2433 ± Kv_Vdd ± Vdd_25 0x2434 ± Kv_avg_RowOdd-ColumnOdd ± Kv_avg_RowEven-ColumnOdd ± Kv_avg_RowOdd-ColumnEven ± Kv_avg_RowEven-ColumnEven 0x2435 ±IL_CHESS_C3-5 bits ±IL_CHESS_C2-5 bits ±IL_CHESS_C1-6 bits 0x2436 ± Kta_avg_RowOdd-ColumnOdd ± Kta_avg_RowEven-ColumnOdd 0x2437 ± Kta_avg_RowOdd-ColumnEven ± Kta_avg_RowEven-ColumnEven 0x2438 MLX Res control calib Kv_scale Kta_scale_1 Kta_scale_2 0x2439 ± Alpha (CP subpage_1 / CP subpage_0-1)*2^7 Alpha CP subpage_0 0x243A ± Offset (CP subpage_1 - CP subpage_0) ± Offset CP subpage_0 0x243B ± Kv_CP ± Kta_CP 0x243C ± KsTa*2^13 TGC (±4)*2^7 0x243D ± KsTo range 2 (0 C CT1 C) ± KsTo range 1 (<0 C) 0x243E ± KsTo range 4 (CT2 C ) ± KsTo range 3 (CT1 C CT2 C) 0x243F MLX temp step x 10 CT4 CT3 KsTo Scale offset - 8 0x2440 ± Offset pixel (1, 1) α pixel (1, 1) ± Kta (1, 1) Outlier 0x2441 ± Offset pixel (1, 2) α pixel (1, 2) ± Kta (1, 2) Outlier 0x245E ± Offset pixel (1, 31) α pixel (1, 31) ± Kta (1, 31) Outlier 0x245F ± Offset pixel (1, 32) α pixel (1, 32) ± Kta (1, 32) Outlier 0x2460 ± Offset pixel (2, 1) α pixel (2, 1) ± Kta (2, 1) Outlier 0x2461 ± Offset pixel (2, 2) α pixel (2, 2) ± Kta (2, 2) Outlier 0x273E ± Offset pixel (24, 31) α pixel (24, 31) ± Kta (24, 31) Outlier 0x273F ± Offset pixel (24, 32) α pixel (24, 32) ± Kta (24, 32) Outlier Table 10 Calibration parameters memory (EEPROM - bits) NOTE 1: EEPROM addresses from 0x2440 0x273F contain the individual pixel calibration information and may not be equal to 0x0000. In case any pixel data is equal to 0x0000 this means that this particular pixels has failed and the calculation for To should not be trusted and avoided. Depending on the application, the To value for such pixels can be replaced with a default value such as C, can be equal to Ta or one calculate an average value from the adjacent pixels. NOTE 2: The LSB for EEPROM addresses from 0x2440 0x273F indicate if all pixel parameters are within the calibration specification. If this bit is set i.e. = 1 this would mean that at least one of the calibration parameters for this particular pixel is outside the calibration specifications and the pixel is considered as Outlier i.e. the sensor accuracy is not guaranteed by the calibration. Depending on the application one may have to choose to replace the measurement results of such pixel by an average of the temperature indicated by the adjacent pixels. NOTE 3: The maximum number of deviating pixels is 4 (please check False pixel correction) Page 21 of 60

22 11. Calculating Object Temperature Restoring calibration data from EERPOM NOTE: All data in the EEPROM is coded as two s complement (unless otherwise noted) In the example we are restoring the calibration data for pixel (12, 16) Restoring the VDD sensor parameters Following formula is used to calculate the VDD of the sensor: = & If >127 = 256 = 2 " #$$ %" = & 000 #$$ %" = (#$$ %" 256) 2 " 2 ( Restoring the Ta sensor parameters Following formula is used to calculate the Ta of the sensor: ) * = -./. = +, -./ ,-./., 7 -./.89 : ;.-./. +25, C & 0=00 2 > If -./. >31 -./. = -./ /. = -./. 2 %?-./. = & 003 If?-./. > 511?-./. =?-./. 1024?-./. =? -./. 2 ( # #$$ %" # C?D?89 = Page 22 of 60

23 If # C?D?89 >32767 # C?D?89 = # C?D? # C?D? # C?D?012 = E H 2 # C?D? C?D? +# FG # C?D? If # C?D? > # C?D? = # C?D? # FG AIJhL C?D?_GG = If # FG > # FG = # FG & % AIJhL C?D? = AIJhL C?D?_GG 2 % Restoring the offset JO PQ RST (O,U) = VWWXYZ *[SR*\S +V== R]^_ 2 P``a0bc1de +V==f]ghijk 2 P``a0bc adblmn +owwxyz(o,u) 2 P``a0bc1cmn0n2 VWWXYZ *[SR*\S = If VWWXYZ *[SR*\S > VWWXYZ *[SR*\S = VWWXYZ *[SR*\S V== R]^38 = GG>p%qq & >p>>> % 38 (i.e. the four most significant bits, signed) If V== R]^38 > 7 V== R]^38 = V== R]^38 16 V== rf*gs1de = V== f]ghij3t = GG>p%q> & >p>>> % s (unsigned) GG>p%qF & >p>>> % 38 (i.e. the four most significant bits, signed) If V== f]ghij3t >7 V== f]ghij3t = V== f]ghij3t 16 V== rf*gsadblmn = GG>p%q> & >p>>> % u (unsigned) owwxyz(12,16) = GG>p%"D & >p`>> % 3v (i.e. the six most significant bits, signed) If owwxyz(12,16) >31 owwxyz(12,16) = owwxyz(12,16) 64 V== rf*gs1cmn0n2 = & 0000 (unsigned) Restoring the offset in case of Interleaved reading pattern To compensate the IR data for interleaved reading pattern following formula is used: JO PQ (O,U)=JO \*wj (O,U)+xy`zGQQ{ (2 xy CD??G}~ 1) xy`zgqq{8 =o Y XOo *ƒƒsrj JO PQ RST 1+?*(w, ) () * ) *> ) 1+ (w, ) # # >ˆ Page 23 of 60

24 Highlighted in yellow parameters are extracted here after. As a default the device is factory calibrated in Chess pattern mode thus the best performance will be when a Chess pattern is used. However some customers may choose to use the device in interleaved mode which will degrade the device performance. In this case a correction can be applied to restore to some extend the performance. Once the IR data is compensated the calculation for To is done using default flow. The goal of this correction is to equalize the offset of the pixels due to the different pattern reading modes. We can achieve this by using several correction coefficients stored into the device EEPROM extracted and decoded as follows: xy`zgqq{3 GG = & 0003F If xy`zgqq{3 GG > 31 xy`zgqq{3 GG = xy`zgqq{3 GG 64 xy`zgqq{3 = xy`zgqq {3 GG 2 q xy`zgqq{8 GG = & 007C0 2 If xy`zgqq{8 GG > 15 xy`zgqq{8 GG = xy`zgqq{8 GG 32 y`zgqq{8 = xy`zgqq {8 GG 2 xy`zgqq{ GG = & 0F800 2 If xy`zgqq{ GG > 15 xy`zgqq{ GG = xy`zgqq{ GG 32 xy`zgqq{ = xy`zgqq { GG 2 ( The above calculated parameters have to be applied as a correction for the offset of each individual pixel. We do need additional patterns in order to make these calculations and the formula to calculate those patterns are as shown below depending on the pixels number: xy CD??G}~ = OZ wpsg nlmœc17 (% OZ+ wjƒ _ cb nlmœc1ž3 8 % : 2 =o Y XOo *ƒƒsrj = OZE JOYI jhi SR 3 H OZE JOYI jhi SR 2 H+OZE JOYI jhi SR H OZE JOYI jhi SR 1 H (1 2 xy CD??G}~ ) Restoring the Sensitivity (,) (w, ) = 1c c1cnac D``1de_ % /{{ a0bc 1de D``adblmnk % /{{ a0bcadblmn _ cb (w, ) %/{{ a0bc1cmn0n2 Where (calculating for pixel (12,16)) : RSTSRSjfS = rf*gs = & % +30 % a0bc Page 24 of 60

25 A== R]^38 = GG>p%q%q & >p>>> % 38 (i.e. the four most significant bits, signed) If A== R]^38 >7 A== R]^38 = A== R]^38 16 A== rf*gs1de = A== f]ghij3t = GG>p%q%> & >p>>> % s (unsigned) GG>p%q% & >p>>> % 38 (i.e. the four most significant bits, signed ) If A== f]ghij3t > 7 A== f]ghij3t = A== f]ghij3t 16 A== rf*gsadblmn = GG>p%q%> & >p>>> % u (unsigned) wpsg (12,16) = GG>p%" & >p>( > % u If wpsg (12,16) >31 wpsg (12,16) = wpsg (12,16) 64 A== rf*gs1cmn0n2 = & 0000F (unsigned) Restoring the Kv(i,j) coefficient (w, ) depend on the pixel position in the array i.e. if the pixel row and column is odd or even If row number is ODD (1, 3, 5 23) and column number is ODD (1, 3, 5 31) then (w, ) = If row number is EVEN (2, 4, 6 24) and column number is ODD (1, 3, 5 31) then (w, ) = If row number is ODD (1, 3, 5 23) and column number is EVEN (2, 4, 6 32) then (w, ) = GG>p%q(q & >p >>> % 38 GG>p%q(q & >p> >> % s GG>p%q(q & >p>> > % u If row number is EVEN (2, 4, 6 24) and column number is EVEN (2, 4, 6 32) then (w, ) = & 0000F If (w, ) >7 (w, ) = (w, ) 16 (%, ) = ;,(_,k) % 5, a0bc (signed) a0bc = GG>p%q( & >p> >> % s (unsigned) Restoring the Kta(i,j) coefficient?*(%, ) = ;.0_ {_šš+;.0(38,3t)_šš a0bc_8?*(%, )_GG = a0bc_3 GG>p%"D & >p>>> % (signed) If?*(%, )_GG > 3 )L(12,16)_ = )L(12,16)_ 8 Page 25 of 60

26 ?*_}`_GG depends on the pixel position in the array i.e. if the pixel row and column is odd or even If row number is ODD (1, 3, 5 23) and column number is ODD (1, 3, 5 31) then?*_}`_gg = & 0FF If row number is EVEN (2, 4, 6 24) and column number is ODD (1, 3, 5 31) then?*_}`_gg = & 000FF If row number is ODD (1, 3, 5 23) and column number is EVEN (2, 4, 6 32) then?*_}`_gg = & If row number is EVEN (2, 4, 6 24) and column number is EVEN (2, 4, 6 32) then?*_}`_gg = & 000FF?*a0bc_3 = If?*_}`_GG > 127 )L_@=_ = )L_@=_ 256 GG>p%q( & >p>> > % u +8 (unsigned)?*a0bc_8 =02438 & 0000F (unsigned) Restoring the GAIN coefficient (common for all pixels) GAIN=02430 (signed) If GAIN > GAIN=GAIN Restoring the KsTa coefficient (common for all pixels) X?* = ;r.0_šš % 3 X?*_GG = GG>p%q( & >p >> % s (signed) If X?*_GG > 127 X?*_GG = X?*_GG Restoring corner temperatures (common for all pixel) The information regarding corner temperatures is stored into device EEPROM and is restored as follows: ZYJ = =)3= =)4= 0243F & % F & 000F0 2 q ZYJ 0243F & 00F00 2 ZYJ+=)3 Or we can construct the temperatures for the ranges as follows: CT1=-40 C (hard codded) < Range 1 > CT2=0 C (hard codded) < Range 2 > CT3 < Range 3 > CT4 < Range 4 Page 26 of 60

27 Restoring the KsTo coefficient (common for all pixels) X?] = X?]_GG 2 ;r.d a0bc X?]a0bc = 0243F & 0000F+8 (unsigned) X?]_GG = 0243D & 000FF(signed) X?]% = ;r.d8_šš % 5.d a0bc X?]%_GG = If X?]_GG >127 X?]_GG = X?]_GG 256 GG>p%q( & >p >> % s (signed) If X?]%_GG >127 X?]%_GG = X?]%_GG 256 X?]( = X?](_GG 2 ;r.d a0bc X?](_GG = 0243E & 000FF(signed) If X?](_GG >127 X?](_GG = X?](_GG 256 X?]q = X?]q_GG 2 ;r.d a0bc X?]q_GG = GG>p%q( & >p>> % s (signed) If X?]q_GG >127 X?]q_GG = X?]q_GG Restoring sensitivity correction coefficients for each temperature range AIJhL f]rr10n«c3 = 1 1+X)o1 0 ( 40)ˆ AIJhL f]rr10n«c8 = 1 AIJhL f]rr10n«c = 1+X)o2 (=)3 0) AIJhL f]rr10n«cu = 1+X)o2 (=)3 0)ˆ 1+X)o3 (=)4 =)3)ˆ Page 27 of 60

28 Restoring the Sensitivity Please note that there are two sensitivities for the compensation pixel one for each subpage GG>p%q( & >p>( `C_rh *\S_> = % a0bc_{- `C_rh *\S_ = `C_rh *\S_> 1+`C_C_C>_R*ƒw] % rf*gs_`c = = _ 1/ 0 R*ƒw] = & % +27 GG>p%q( & >p`>> % 3v (signed) If = _ 1/ 0 R*ƒw] >31 = _ 1/ 0 R*ƒw] = = _ 1/ 0 R*ƒw] Restoring the offset of the Compensation Pixel (CP) Please note that there are two offsets for the compensation pixel one for each subpage VWW_= rh *\S_> = 0243A & 003 (signed) If VWW_= rh *\S_> >511 VWW_= rh *\S_> = VWW_= rh *\S_> 1024 VWW_= rh *\S_ = VWW_= rh *\S_> +VWW_= rh *\S Sgƒ* VWW_= rh *\S Sgƒ* = GG>p%q(D & >p`>> % 3v (signed) If VWW_= rh *\S Sgƒ* >31 VWW_= rh *\S Sgƒ* = VWW_= rh *\S Sgƒ* Restoring the Kv CP coefficient {- = ;, {-_šš % 5, a0bc a0bc = GG>p%q( & >p> >> % s (unsigned) (the same one as for the (w, ) coefficients) {-_šš = GG>p%q( & >p >> % s (signed) If {-_šš >127 {-_šš = {-_šš Restoring the Kta CP coefficient?*{- = ;.0 {-_šš % 5.0 a0bc_3 Page 28 of 60

29 ?*a0bc_3 = GG>p%q( & >p>> > % u +8 (unsigned) (the same one as for the?*(w, ) coefficients)?*{-_šš = 0243B & 000FF (signed) If?*{-_šš >127?*{-_šš =?*{-_šš Restoring the TGC coefficient )±= =?²`šš % 9 )±= GG = 0243C & 000FF (signed) If )±= GG > 127 )±= GG = )±= GG 256 NOTE 1: In a MLX90640ESF BAx 000-TU device, the TGC coefficient is set to 0 and must not be changed. NOTE 2: In a MLX90640ESF BCx 000-TU device, the EEPROM contains a typical value for the TGC coefficient but the user may choose to adjust the value such to best fit for a specific application. Using the TGC increases noise in the temperature calculations which can be reduced by external filtering (averaging) of the CP sensor data. By making the TGC coefficient 0 the gradients compensation is bypassed Restoring the resolution control GG = GG>p%q( & >p(>>> % 38 (unsigned) Page 29 of 60

30 11.2. Temperature Calculation Example Input Data Example Measurement Data Input data name Input data value Object temperature 80 C Emissivity (ε) 1 Control register 1 (Res ctrl ) 0x0901 (2 decimal) RAM[0x056F] (pix(12,16) data) 0x0261 (609) Vbe - RAM[0x0700] 0x4BF2 (19442) CP subpage 0 RAM[0x0708] 0xFFCA (-54) CP subpage 1 RAM[0x0728] 0xFFC8 (-56) GAIN - RAM[0x070A] 0x1881 (6273) PTAT - RAM[0x0720] 0x06AF (1711) VDD - RAM[0x072A] 0xCCC5 (-13115) Table 11 Calculation example input data Example Calibration Data EEPROM address 0x2410 Calibration parameter name K_PTAT 4 bits Scale_OCC_row 4 bits Scale_OCC_column 4 bits Scale_OCC_remnand 4 bits Parameter value 0x4210 Decoded value K_PTAT = 9 Scale_OCC_row = 2 Scale_OCC_column = 1 Scale_OCC_remnand = 0 0x2411 Pix_os_average 16 bits 0xFFBB Pix_os_average = -69 0x2412 0x2413 0x2414 OCC_rows_04 4 bits OCC_rows_03 4 bits OCC_rows_02 4 bits OCC_rows_01 4 bits OCC_rows_08 4 bits OCC_rows_07 4 bits OCC_rows_06 4 bits OCC_rows_05 4 bits OCC_rows_12 4 bits OCC_rows_11 4 bits 0x0202 0xF202 0xF2F2 OCC_rows_04 = 0 OCC_rows_03 = 2 OCC_rows_02 =0 OCC_rows_01 = 2 OCC_rows_08 = -1 OCC_rows_07 = 2 OCC_rows_06 = 0 OCC_rows_05 = 2 OCC_rows_12 = -1 OCC_rows_11 = 2 Page 30 of 60

31 OCC_rows_10 4 bits OCC_rows_09 4 bits OCC_rows_10 = -1 OCC_rows_09 = 2 0x2415 OCC_rows_16 4 bits OCC_rows_15 4 bits OCC_rows_14 4 bits OCC_rows_13 4 bits 0xE2E2 OCC_rows_16 = -2 OCC_rows_15 = 2 OCC_rows_14 = -2 OCC_rows_13 = 2 0x2416 OCC_rows_20 4 bits OCC_rows_19 4 bits OCC_rows_18 4 bits OCC_rows_17 4 bits 0xD1E1 OCC_rows_20 = -3 OCC_rows_19 = 1 OCC_rows_18 = -2 OCC_rows_17 = 1 0x2417 OCC_rows_24 4 bits OCC_rows_23 4 bits OCC_rows_22 4 bits OCC_rows_21 4 bits 0xB1D1 OCC_rows_24 = -5 OCC_rows_23 = 1 OCC_rows_22 = -3 OCC_rows_21 = 1 0x2418 OCC_column_04 4 bits OCC_column_03 4 bits OCC_column_02 4 bits OCC_column_01 4 bits 0xF10F OCC_column_04 = -1 OCC_column_03 = 1 OCC_column_02 = 0 OCC_column_01 = -1 0x2419 OCC_column_08 4 bits OCC_column_07 4 bits OCC_column_06 4 bits OCC_column_05 4 bits 0xF00F OCC_column_08 = -1 OCC_column_07 = 0 OCC_column_06 = 0 OCC_column_05 = -1 0x241A OCC_column_12 4 bits OCC_column_11 4 bits OCC_column_10 4 bits OCC_column_09 4 bits 0xE0EF OCC_column_12 = -2 OCC_column_11 = 0 OCC_column_10 = -2 OCC_column_09 = -1 0x241B OCC_column_16 4 bits OCC_column_15 4 bits OCC_column_14 4 bits OCC_column_13 4 bits 0xE0EF OCC_column_16 = -2 OCC_column_15 = 0 OCC_column_14 = -2 OCC_column_13 = -1 0x241C OCC_column_20 4 bits OCC_column_19 4 bits OCC_column_18 4 bits OCC_column_17 4 bits 0xE1E1 OCC_column_20 = -2 OCC_column_19 = 1 OCC_column_18= -2 OCC_column_17 = 1 0x241D OCC_column_24 4 bits OCC_column_23 4 bits OCC_column_22 4 bits OCC_column_21 4 bits 0xF3F2 OCC_column_24 = -1 OCC_column_23 = 3 OCC_column_22= -1 OCC_column_21 = 2 0x241E OCC_column_28 4 bits OCC_column_27 4 bits OCC_column_26 4 bits OCC_column_25 4 bits 0xF404 OCC_column_28 = -1 OCC_column_27 = 4 OCC_column_26= 0 OCC_column_25 = 4 0x241F OCC_column_32 4 bits OCC_column_31 4 bits 0xE504 OCC_column_32 = -2 OCC_column_31 = 5 Page 31 of 60

32 0x2420 OCC_column_30 4 bits OCC_column_29 4 bits Alpha scale 4 bits Scale_ACC_row 4 bits Scale_ACC_column 4 bits Scale_ACC_remnand 4 bits 0x79A6 OCC_column_30= 0 OCC_column_29 = 4 Alpha scale = 37 Scale_ACC_row = 9 Scale_ACC_column = 10 Scale_ACC_remnand = 6 0x2421 Pix_sensitivity_average - 16 bits 0x2F44 Pix_sensitivity_average = E-08 0x2422 0x2423 0x2424 0x2425 0x2426 0x2427 0x2428 0x2429 0x242A ACC_rows_04 4 bits ACC_rows_03 4 bits ACC_rows_02 4 bits ACC_rows_01 4 bits ACC_rows_08 4 bits ACC_rows_07 4 bits ACC_rows_06 4 bits ACC_rows_05 4 bits ACC_rows_12 4 bits ACC_rows_11 4 bits ACC_rows_10 4 bits ACC_rows_09 4 bits ACC_rows_16 4 bits ACC_rows_15 4 bits ACC_rows_14 4 bits ACC_rows_13 4 bits ACC_rows_20 4 bits ACC_rows_19 4 bits ACC_rows_18 4 bits ACC_rows_17 4 bits ACC_rows_24 4 bits ACC_rows_23 4 bits ACC_rows_22 4 bits ACC_rows_21 4 bits ACC_column_04 4 bits ACC_column_03 4 bits ACC_column_02 4 bits ACC_column_01 4 bits ACC_column_08 4 bits ACC_column_07 4 bits ACC_column_06 4 bits ACC_column_05 4 bits ACC_column_12 4 bits ACC_column_11 4 bits ACC_column_10 4 bits ACC_column_09 4 bits 0xFFDD 0x2210 0x3333 0x2233 0xEF01 0x9ACC 0xEEDC 0x10FF 0x2221 ACC_rows_04 = -1 ACC_rows_03 = -1 ACC_rows_02 = -3 ACC_rows_01 = -3 ACC_rows_08 = 2 ACC_rows_07 = 2 ACC_rows_06 = 1 ACC_rows_05 = 0 ACC_rows_12 = 3 ACC_rows_11 = 3 ACC_rows_10 = 3 ACC_rows_09 = 3 ACC_rows_16 = 2 ACC_rows_15 = 2 ACC_rows_14 = 3 ACC_rows_13 = 3 ACC_rows_20 = -2 ACC_rows_19 = -1 ACC_rows_18 = 0 ACC_rows_17 = 1 ACC_rows_24 = -7 ACC_rows_23 = -6 ACC_rows_22 = -4 ACC_rows_21 = -4 ACC_column_04 = -1 ACC_column_03 = -1 ACC_column_02 = -2 ACC_column_01 = -3 ACC_column_08 = 1 ACC_column_07 = 0 ACC_column_06 = -1 ACC_column_05 = -1 ACC_column_12 = 2 ACC_column_11 = 2 ACC_column_10 = 2 ACC_column_09 = 1 Page 32 of 60

33 0x242B 0x242C 0x242D 0x242E 0x242F ACC_column_16 4 bits ACC_column_15 4 bits ACC_column_14 4 bits ACC_column_13 4 bits ACC_column_20 4 bits ACC_column_19 4 bits ACC_column_18 4 bits ACC_column_17 4 bits ACC_column_24 4 bits ACC_column_23 4 bits ACC_column_22 4 bits ACC_column_21 4 bits ACC_column_28 4 bits ACC_column_27 4 bits ACC_column_26 4 bits ACC_column_25 4 bits ACC_column_32 4 bits ACC_column_31 4 bits ACC_column_30 4 bits ACC_column_29 4 bits 0x3333 0x2333 0x0112 0xEEFF 0xBBDD ACC_column_16 = 3 ACC_column_15 = 3 ACC_column_14 = 3 ACC_column_13 = 3 ACC_column_20 = 2 ACC_column_19 = 3 ACC_column_18= 3 ACC_column_17 = 3 ACC_column_24 = 0 ACC_column_23 = 1 ACC_column_22= 1 ACC_column_21 = 2 ACC_column_28 = -2 ACC_column_27 = -2 ACC_column_26= -1 ACC_column_25 = -1 ACC_column_32 = -5 ACC_column_31 = -5 ACC_column_30= -3 ACC_column_29 = -3 0x2430 GAIN 0x18EF GAIN = x2431 PTAT_25 0x2FF1 PTAT_25 = x2432 0x2433 0x2434 0x2435 0x2436 0x2437 0x2438 Kv_PTAT - 6 bits Kt_PTAT - 10 bits K_Vdd - 8 bits Vdd_25-8 bits Kv_avg_RO_CO 4 bits Kv_avg_RE_CO 4 bits Kv_avg_RO_CE 4 bits Kv_avg_RE_CE 4 bits IL_CHESS_C3 5 bits IL_CHESS_C2 5 bits IL_CHESS_C1 6 bits Kta_avg_RO_CO 8 bits Kta_avg_RE_CO 8 bits Kta_avg_RO_CE 8 bits Kta_avg_RE_CE 8 bits Resolution_control_cal 2 bits Kv_scale 4 bits Kta_scale_1 4 bits Kta_scale_1 4 bits 0x5952 0x9D68 0x5454 0x0994 0x6956 0x5354 0x2363 Kv_PTAT = Kt_PTAT = K_Vdd = Vdd_25 = Kv_avg_RO_CO = 5 Kv_avg_RE_CO = 4 Kv_avg_RO_CE = 5 Kv_avg_RE_CE = 4 IL_CHESS_C3 = IL_CHESS_C2 = 3 IL_CHESS_C1 = 1.25 Kta_avg_RO_CO = 105 Kta_avg_RE_CO = 86 Kta_avg_RO_CE = 83 Kta_avg_RE_CE = 84 Resolution_control_cal = 2 Kv_scale = 3 Kta_scale_1 = 14 Kta_scale_1 = 3 0x2439 CP_SP_1/SP_0_ratio 6 bits 0xE446 CP_SP_1/SP_0_ratio = Page 33 of 60

34 Alpha_CP_SP_0 10 bits Alpha_CP_SP_0 = E-09 0x243A CP_off_delta (SP_1 - SP_0) 6 bits Offset_CP_SP_0 10 bits 0xFBB5 CP_off_delta (SP_1 - SP_0) = -2 Offset_CP_SP_0 = -75 0x243B Kv_CP 8 bits Kta_CP 8 bits 0x044B Kv_CP = 0.5 Kta_CP = x243C KsTa 8 bits TGC 8 bits 0xF020 KsTa = TGC = 1 0x243D KsTo2 (0 C CT3 C) 8 bits KsTo1 (<0 C) 8 bits 0x9797 KsTo2 (0 C CT3 C) = KsTo1 (<0 C) = x243E KsTo4 (CT4 C ) 8 bits KsTo3 (CT3 C CT4 C) 8 bits 0x9797 KsTo4 (CT4 C ) = KsTo3 (CT3 C CT4 C) = x243F Step 2 bits CT4 4 bits CT3 4 bits KsTo_scale 4 bits 0x2889 Step = 20 C CT4 = 320 C CT3 = 160 C KsTo_scale = 17 Table 12 Calculation example calibration data Page 34 of 60

35 Temperature calculation After the parameters restore the temperature calculation is done using following calculation flow (assuming that the EEPROM data are already extracted): Supply voltage value calculation (common for all pixels) Ambient temperature calculation (common for all pixels) Gain compensation IR data compensation offset, VDD and Ta IR data Emissivity compensation IR data gradient compensation Normalizing to sensitivity Calculating To Image (data) processing Figure 17 To calculation flow For this example we calculate the temperature of pixel (12, 16) i.e. row=12 and the column=16. Values marked with green are extracted from device EEPROM Values marked with grey are final parameter values or are values to be used for next calculations Resolution restore The device is calibrated with default resolution setting = 2 (corresponding to ADC resolution set to 18bit see Fig 11) i.e. if the one choose to change the ADC resolution setting to a different one a correction of the data must be done. First we must restore the resolution at which the device has been calibrated which is stored at EERPOM f]rr = % cdbl2_dn šš % cdbl2_dn GG }G² = GG>p%q( & >p(>>> >p%( ( & >p(>>> = = = 2 (unsigned) % 38 % 38 }D >p>> & >p>`>> >p > & >p>`>> = = = 2 (unsigned) % 3v % 3v Page 35 of 60

36 @YXoI³ZOo f]rr = % cdbl2_dn šš % cdbl2_dn š = %8 % 8 = 1 In case the ADC resolution is changed the one must multiply f]rr coefficient with the RAM data for VDD only. Please note that the data for Vbe, PTAT and IR pixels (including CP) must not be changed Supply voltage value calculation (common for all pixels) # = }Sr]ghƒw]j ad11 }D >p> %D7 ¹¹ 89 ;,¹¹ +# > Constants calculation of the EEPROM stored values (can be done just once after POR) = & = If 157 >127 = = 99 = 2 " = = $68 & = 0009$ = 157 #»» %" = & 000 = 09$68 & 000 = = 104 #»» %" = (#»» %" 256) 2 " 2 ( = = VDD = 0===5 = If > = = LSB # = 7("7(7(>" ) +3.3 = 7" # 7( 7( Ambient temperature calculation (common for all pixels) ) * = +, -./ ,-./., 7 -./.89 : ;.-./. +25, C -./. = & 0= & 0=00 2 > = 2 > = = 22 If 22 <31 -./. = 22 -./. = -./. 2 % = = ?-./. = & 003 = & 003 = = 338 If 338 <511?-./. = 338?-./. =? -./. 2 ( = = # #»» %" Page 36 of 60

37 @AB0072A = 0===5 = If = = LSB # = ( 13056) 3168 = # C?D?89 = = 021 = If < # C?D?89 = # C?D? # C?D?012 = E H 2 # C?D? AIJhL C?D? +# FG # C?D? = 0x06AF = 1711 ) * = If 1711 <32767 # C?D? = 1711 # FG = 0x4BF2 = AIJhL C?D?_GG = If < # FG = & & % = 2 % = % = = 4 AIJhL C?D? = AIJhL C?D?_GG 2 % +8 = = 9 # C?D? 1711 # C?D?012 = E H 2 = E # C?D? AIJhL C?D? +# FG H 2 = , -./ ,-./., 7 -./.89 : ) * = 38s.9 À98 ;.-./. +25, C 34v.vv9 3vÀu v.v3st8 7%% ( q%.%" +25 = C Gain parameter calculation (common for all pixels) \*wj = = 6273 If 6273 = 6273 ±AxÁ = = 018 = 6383 If 6383 <32767 ±AxÁ = 6383 \*wj = = Page 37 of 60

38 Please note that this value is updated every frame and it is the same for all pixels including CP regardless the subpage number Pixel data calculations The pixel addressing is following the pattern as described in Reading pattern shown in Fig 5: Gain compensation The first step of the data processing on raw IR data is always the gain compensation, regardless of pixel or subpage number. JO \*wj (12,16) \*wj = = 609 If 609 = 609 JO \*wj (12,16) = = Offset calculation JO PQ RST (12,16)=VWWXYZ *[SR*\S +V== R]^38 2 P``a0bc1de +V== f]ghij3t 2 P``a0bc adblmn +owwxyz(12,16) 2 P``a0bc 1cmn0n2 VWWXYZ *[SR*\S = = 0ÂÂ = If > VWWXYZ *[SR*\S = = 69 As the row=12, we select EEPROM cell 0x2414 (± OCC_rows_12 08 (4 x 4bit)) and extract the four most significant bits corresponding to parameter OCC_rows_12. If another row number is selected, the corresponding OCC parameter must be selected. V== R]^38 = GG>p%qq & >p>>> >p%% & >p>>> = = 0000 = 15 % 38 % 38 If 15 >7 V== R]^38 = = 1 V== rf*gs1de = GG>p%q> & >p>>> >pq%> & >p>>> = = = 2 % s % s Please note that V== rf*gs1de is a common parameter for all V== R]^_ calculation As the column=16, we select EEPROM cell 0x2425 (± OCC_column_16 13 (4 x 4bit)) and extract the four most significant bits corresponding to parameter OCC_columns_16. If another column number is selected, the corresponding OCC parameter must be selected. V== f]ghij3t = GG>p%qF & >p>>> >pg>g & >p>>> = = 0000 = 14 % 38 % 38 If 14 >7 V== f]ghij3t = = 2 V== rf*gsadblmn = GG>p%q> & >p>>> >pq%> & >p>>> = = = 1 % u % u Please note that V== rf*gsadblmn is a common parameter for all V== f]ghijk calculation Page 38 of 60

39 owwxyz(12,16) = GG>p%"D & >p`>> % 3v = If 2 < 31 owwxyz(12,16) = 2 >p>d> & >p`>> % 3v = V== rf*gs1cmn0n2 = & 0000 = & 0000 = = 0 JO PQ RST (12,16) = 69+( 1) 2% +( 2) > = = IR data compensation offset, VDD and Ta JO PQ (12,16) = JO \*wj (12,16) JO PQ RST 1+?*(%, ) () * ) *> ) 1+ (%, ) # # >ˆ?*(%, ) = ;.0_ {_šš 5.0(38,3t)_ÃÃ & v vvvã % 5.0 a0bc_8 8 % 5.0 a0bc_3?*(%, )_GG = GG>p%"D & >p>>> % = If 0 < 3?*(%, )_GG = 0 >p>d> & >p>>> As row and column numbers are even then % = = 0?*_}`_GG = & 000FF = 0x5354 & 0x00FF = 0x0054 = 84?*a0bc_3 = If 84 <127?*_}`_GG = 84 GG>p%q( & >p>> > >p%( ( & >p>> > +8 = +8 = = 6+8 = 14 % u % u?*a0bc_8 = & 0000F = & 0000 = = 3?*(%, ) = q > % % 3u = q (q = As row and column numbers are even: (w, ) = & 0000F = & 0000 = = 4 If (w, ) <7 (w, ) = 4 (%, ) = ;,(_,k) % 5, a0bc (signed) a0bc = GG>p%q( & >p> >> >p%( ( & >p> >> = = = 3 % s % s (%, ) = ;,(_,k) % 5, a0bc = q % = q = 0.5 JO PQ (12,16) = ( 75) ( )ˆ ( )ˆ JO PQ (12,16) = Page 39 of 60

40 IR data Emissivity compensation Emissivity compensation: For the example we assume Emissivity = 1. Note that the Emissivity coefficient is user defined and it is not stored in the device EEPROM) # Ä}(%, )šm Å_2Æ_{ÇÈ-šÉÊ/.šË = wp ÇÊ (%, ) CP data calculations Ì = >>.%q " > Compensating the GAIN of CP pixel = JO \*wj_`c_qc> = 0=A = If > = = 54 JO \*wj_`c_qc> = = JO \*wj_`c_qc = 0=8 = If > = = 56 JO \*wj_`c_qc = = NOTE: In order to limit the noise in the final To calculation it is advisable to filter the CP readings at this point of calculation. A good practice would be to apply a Moving Average Filter with length of 16 or higher Compensating offset, Ta and VDD of CP pixel JO PQ_`C_QC> = JO \*wj_`c_qc> VWW_= rh *\S_> 1+?*_`C () * ) *> ) 1+ _`C # # >ˆ The value of the offset for compensating pixel for the subpage 1 depends on the reading pattern. In case the chess reading pattern mode is used following formula is to be applied: JO PQ_`C_QC = JO \*wj_`c_qc VWW_= rh *\S_ 1+?*_`C () * ) *> ) 1+ _`C # # >ˆ In case of interleaved mode is used following formula is to be applied: JO PQ_`C_QC = JO \*wj_`c_qc VWW_= rh *\S_ +xy`zgqq` ) 1+?*_`C () * ) *> ) 1+ _`C # # >ˆ The correction parameter (highlighted in yellow) is extracted in Error! Reference source not found. VWW_= rh *\S_> = 0243A & 003 = 0ÂÂ5 & 003 = 003Â5 = 949 If 949 >511 VWW_= rh *\S_> = = 75 VWW_= rh *\S_ = VWW_= rh *\S_> +VWW_= rh *\S Sgƒ* Page 40 of 60

41 VWW_= rh *\S Sgƒ* = GG>p%q(D & >p`>> >pff" & >p`>> = = 0003 = 62 % 3v % 3v If 62 >31 VWW_= rh *\S Sgƒ* = = 2 VWW_= rh *\S_ = 75+( 2) = 77?*{- = ;.0 {-_šš % 5 = ".0 a0bc_3 % 3u = ?*a0bc_3 = GG>p%q( & >p>> > % u +8 = 14 (unsigned) (the same one as for the?*(w, ) coefficients)?*{-_šš = 0243B & 000FF = 0044Â &000 = 0004Â = 75 If 75 <127?*{-_šš = 75 {- = ;, {-_šš % 5, a0bc = q % = 0.5 a0bc = GG>p%q( & >p> >> >p%( ( & >p> >> = = = 3 (unsigned) (the same one as for the % s % s (w, ) coefficients) {-_šš = GG>p%q( & >p >> >p>qqf & >p >> = = = 4 % s % s If 4 < 127 {-_šš = 4 JO PQ_`C_QC> = ( 75) ( )ˆ ( )ˆ JO PQ_`C_QC> = JO PQ_`C_QC = ( 77) ( )ˆ ( )ˆ JO PQ_`C_QC = IR data gradient compensation As stated in Reading patterns the device can work in two different readings modes (Chess pattern the default one and IL (Interleave mode)). Depending on the device measurement mode and JOYI jhi SR =1 768 we can define a pattern which will help us to automatically switch between both subpages. - In case of Chess pattern is selected please use following expression: LZZY = ÎOZE JOYI jhi SR 1 OZE JOYI jhi SR 1 32 H OZÎ 32 2 H Ï 2Ïo (JOYI jhi SR 1) OZE JOYI jhi SR 1 2 H 2 - In case of Interleaved pattern please use following expression: Page 41 of 60

42 LZZY = ÎOZE JOYI jhi SR 1 OZE JOYI jhi SR 1 H 32 H OZÎ Ï 2Ï 32 2 Where the OZ function is giving the truncated whole number without fractional component of the result. Where o is exclusive or or exclusive disjunction is a logical operation that outputs true only when inputs differ. The truth table is as follows: Input 1 Input 2 Output Example: Let s assume that the JOYI jhi SR = 368 (1216) If we are in chess mode: LZZY = ÐOZE H OZÐ OZ Table 13 XOR truth table Ñ 2Ño +(368 1) OZE H 2: LZZY = +OZ( ) OZ+ OZ( ) : 2:o (367 OZ(183.5) 2) 2 LZZY = E11 OZE 11 H 2Ho ( ) =(11 5 2)o (1) =(1)o (1) = 0 2 If we are in IL mode: LZZY = ÐOZE H OZÐ OZ Ñ 2Ñ=+OZ( ) OZ+ OZ( ) 2 : 2: LZZY = E11 OZE 11 2 H 2H=(11 5 2)=1 # Ä}(%, ){ÇÈ-šÉÊ/.šË = # Ä}(%, )šm Å_2Æ_{ÇÈ-šÉÊ/.šË )±= (1 LZZY ) JO PQ_`C_QC> + LZZY JO PQ_`C_QC )±= =?²`šš % 9 = (% (% = 1 )±= GG = 0243C & 000FF = 0020 & 000FF = = 32 If 32 <127 )±= GG = 32 # Ä}(%, ){ÇÈ-šÉÊ/.šË = = Page 42 of 60

43 Normalizing to sensitivity f]i (%, ) = + (%, ) )±= E(1 LZZY ) `ClŒ 0«c v + LZZY `C_rh *\S_H: 1+ r?* () * ) *> )ˆ `C_rh *\S_> = GG>p%q( & >p>( >pgqq & >p>( >pgqq & >p>( % = a0bc_{- % = = >p>>q = a0bc_{- % u % u `C_rh *\S_ = `C_rh *\S_> 1+`C_C_C> 102_d % = % `C_rh *\S_ = rf*gs_`c = & A6 & % +27 = 2 % +27 = = 34 = _ 1_ 0 R*ƒw] = GG>p%q( & >p`>> >pgqq & >p`>> = = = 57 % 3v % 3v X?* = ;r.0_šš = 7 % 3 % If 57 >31 = _ 1_ 0 R*ƒw] = = 7 3 = X?*_GG = GG>p%q( & >p >> >p>%> & >p >> = = 0000 = 240 (common for all pixels) % s % s If 240 >127 X?*_GG = = 16 (%, ) = 1c c1cnac D``1de 38 %/{{ a0bc1de D``adblmn 3t %/{{ a0bc adblmn _ cb (%, ) %/{{ a0bc 1cmn0n2 % a0bc RSTSRSjfS = = 0244 = rf*gs = & A6 & % +30 = 2 % +30 = = 37 A== R]^38 = GG>p%q%q & >p>>> >p(((( & >p>>> = = = 3 % 38 % 38 If 3 < 7 A== R]^38 = 3 A== rf*gs1de = A== f]ghij3t = GG>p%q%> & >p>>> >p D & >p>>> = = = 9 % s % s 0242B & & % = 2 % = = 3 If 3 > 7 A== f]ghij3t = 3 A== rf*gsadblmn = GG>p%q%> & >p>>> >p D & >p>>> = = 0000A = 10 % u % u wpsg (12,16) = 0258F & 003F0 008A0 & 003F0 2 q = 2 q = 0000A = 10 If 10 < 31 wpsg (12,16) = 10 Page 43 of 60

44 A== rf*gs1cmn0n2 = & 0000F = 079A6 & 0000F = = 6 (%, ) = %>> ( %À ( % 3v > % t % = f]i (%, ) = + (%, ) )±= E(1 LZZY ) `ClŒ 0«c v + LZZY `C_rh *\S_H: 1+ r?* () * ) *> )ˆ f]i (%, ) = (1 0) ˆ ( )ˆ f]i (%, ) = Calculating To for basic temperature range (0 C CT3 C) r?]% = ;.d8_šš % 5 = 7>".d a0bc % 3 = X?]%_GG = GG>p%q( & >p >> >p & >p >> = = = 151 % s % s If 151 >127 X?]%_GG = = 105 X?]a0bc = 0243F & 0000F+8 = & 0000F+8 = = 17 As the IR signal received by the sensor has two components: 1. IR signal emitted by the object 2. IR signal reflected from the object (the source of this signal is surrounding environment of the sensor) In order to compensate correctly for the emissivity and achieve best accuracy we need to know the surrounding temperature which is responsible for the second component of the IR signal namely the reflected part - ) R. In case this ) R temperature is not available and cannot be provided it might be replaced by ) R ) * 8. Let s assume ) R = 31 C. ) *;q = () * ) q = ( ) q = q = ) R;q = () R ) q = ( ) q = q = ) *7R = ) R;q ) R;q ) *;q Ò = u p(%, ) = r?]% Ó ( f]i (%, ) # Ä}(%, ){ÇÈ-šÉÊ/.šË + q f]i (%, ) ) *7R = u p(%, ) = Ô( ) ( ( ) q p(%, ) = u # Ä}(%, ){ÇÈ-šÉÊ/.šË ) P(12,16) = Õ f]i (12,16) (1 r?]% )+ p(12,16) +) L u ) P(%, ) = Õ (1 ( ) ) ) P(12,16) = , C Page 44 of 60

45 Calculations for extended temperature ranges In order to extent the object temperature range and get the best possible accuracy an additional calculation cycle is needed. We can identify 4 object temperature ranges (each temperature range has its own so called Corner Temperature CT which is the temperature at which the range starts): - Object temperature range 1 = -40 C 0 C (Corner temperature for this range is -40 C and cannot be changed) - Object temperature range 2 = 0 C CT3 C (Corner temperature for this range is 0 C and cannot be changed) - Object temperature range 3 = CT3 C CT4 C - Object temperature range 4 = CT4 C In order to be able to carry out temperature calculation for the ranges outside of temperature range 2 (To = 0 C CT3) an additional parameters are needed and must be extracted from the device EEPROM. Those parameters are: - So called corner temperature (CTx) i.e. the value of temperature at the beginning of the range. Please note that the corner temperatures for range 1 is fixed to -40 C and corner temperatures for range 2 is fixed to 0 C while CT3 and CT4 are adjustable - Sensitivity slope for each range KsTo x - ) P(p,Ö) calculated in Restoring corner temperatures The information regarding corner temperatures is stored into device EEPROM and is restored as follows: ZYJ = =)3= =)4= 0243F & & % 10= 2 % 10= = 2 10=20 = 0243F & 000F & 000F0 2 q ZYJ = 2 q 20= = 8 20=160 = 0243F & 00F & 00F00 2 ZYJ+=)3= = = =320 = Or we can construct the temperatures for the ranges as follows: CT1=-40 C < Range 1 > CT2=0 C < Range 2 > CT3=160 C < Range 3 > CT4=320 C < Range Restoring the sensitivity slope for each range X?]a0bc = 17 has been extracted in X?] = X?]_GG 2 ;r.d a0bc = = X?]_GG = 0243D & 000FF = & 000FF = = 151 (signed) If X?]_GG >127 X?]_GG = X?]_GG 256 = = 105 X?]( = X?](_GG 2 ;r.d a0bc = = X?](_GG = 0243E & 000FF = & 000FF = = 151 (signed) Page 45 of 60

46 If X?](_GG >127 X?](_GG = X?](_GG 256 = = 105 X?]q = X?]q_GG 2 ;r.d a0bc = = X?]q_GG = GG>p%q( & >p>> >p & >p >> = = = 151 (signed) % s % s If X?]q_GG >127 X?]q_GG = X?]q_GG 256 = = 105 Now we can calculate sensitivity correction coefficients for each temperature range: AIJhL f]rr10n«c3 = AIJhL f]rr10n«c8 = X)o1 0 ( 40)ˆ = ( 40)ˆ = AIJhL f]rr10n«c = 1+X)o2 (=)3 0) = (160 0) = AIJhL f]rr10n«cu = 1+X)o2 (=)3 0)ˆ 1+X)o3 (=)4 =)3)ˆ AIJhL f]rr10n«cu = (160 0)ˆ ( )ˆ AIJhL f]rr10n«cu = Extended To range calculation The input parameter for this calculation is the object temperature calculated in If ) P(%, ) < 0 C we are in range 1 and we will use the parameters (X?], AIJhL f]rr10n«c3 and =)1 = 40 =) If 0 C < ) P(%, ) < CT3 C we are in range 2 and we will use the parameters (X?]%, AIJhL f]rr10n«c8 and =)2 = 0 =) If CT3 C < ) P(%, ) < CT4 C we are in range 3 and we will use the parameters (X?](, AIJhL f]rr10n«c and =)3 = 160 =) If CT4 C < ) P(%, ) we are in range 4 and we will use the parameters (X?]q, AIJhL f]rr10n«cu and =)4 = 320 =) u # Ä}(%, ){ÇÈ-šÉÊ/.šË ) Pc 210_10n«c (%, ) = Õ f]i (12,16) AyJhL 1+X Øo LÙYÚ?]Û () P(12,16) CT X )ˆ +) L Page 46 of 60

47 12. Performance graphs Accuracy All accuracy specifications apply under settled isothermal conditions only. Furthermore, the accuracy is only valid if the object fills the FOV of the sensor completely. Parameter definitions: Frame accuracy is defined as average value of the all (768) pixels in the frame or for frame can be expressed as: ) ßßßßßßßßßßßßßßßßß ] _W LÞY() = à ) ](Þ,) iá LÞY LØس LØâ = ßßßßßßßßßßßßßßßßß ) ) ] _W LÞY() ƒ*r\sƒ Non-uniformity is defined as the maximum deviation of each individual pixel reading vs. the absolute accuracy. Pixel absolute accuracy is defined as: Áo ãowo ÞOZâ = BAÚ ä) ] (Þ) ) ßßßßßßßßßßßßßßßßßäˆ ] _W LÞY() ) P *ffhr*fö(j) = LÞY LØس LØâ+ Áo ãowo ÞOZâ 400 C To, C 400 C To, C 300 C 300 C Contact MLX Contact MLX Contact MLX TBD TBD TBD 200 C 200 C 100 C 100 C 0 C -40 C Frame Accuracy ± 2 C NU zone1±1 C± 2%* To-Ta NU zone2±2 C± 2%* To-Ta NU zone3±3 C± 2%* To-Ta TBD Frame Accuracy ± 5 C Non-uniformity ± 2%* To-Ta Frame accuracy ± 1 C Non-uniformity zone1 ± 0.5 C Non-uniformity zone2 ± 1 C Non-uniformity zone3 ± 2 C ± 2%* To-Ta TBD -40 C 0 C 50 C Frame accuracy ± 2 C NU zone1±1 C± 2%* To-Ta NU zone2±2 C± 2%* To-Ta NU zone3±3 C± 2%* To-Ta TBD 85 C Ta, C 0 C -40 C TBD TBD Frame Accuracy ± 1 C Uniformity zone1 ± 1 C Uniformity zone2 ± 2 C TBD -40 C 0 C 50 C TBD TBD 85 C Ta, C Figure 18 Absolute temperature accuracy MLX90640BAA (left) and MLX90640BAB (right) Example: If we assume that the sensor (BAA type, zone 1) is measuring a target at 80 C that would mean that there should be no pixel with error bigger than: ) P *ffhr*fö(j) = LÞY LØس LØâ+ Áo ãowo ÞOZâ = ±1±0.5 = ±1.5 = NOTE: For best performance it is recommended to keep the supply voltage as accurate and stable as possible to 3.3V ± 0.1V Page 47 of 60

48 Zone 3 Zone 3 Zone 1 Zone 1 Zone 3 Zone 2 Zone 3 MLX90640BAA Zone 2 MLX90640BAB Figure 19 Different accuracy zones depending on device type (BAA on the left and BAB on the right) Page 48 of 60

49 Startup time First valid data After POR the first valid data is available after (depending on the selected refresh rate) ) [*gw_*ƒ* which is calculated as: ) [*gw_*ƒ* = , ms (Example refresh rate is 2Hz the default value) It is always subpage 0 to be measured first after POR then subpage 1 and so on alternating. NOTE: In case one changes the refresh rate on the fly (by writing new values into device register (0x800D)) the settings will take place only after the subpage under measurement is finished. Vdd Default Set 8Hz 40ms 2Hz Subpage 0 Subpage 1 Subpage 0 Active 2Hz refresh rate 8Hz refresh rate start Thermal behavior Although electrically the device is set and running there is thermal stabilization time necessary before the device can reach the specified accuracy up to 4 min. Page 49 of 60

50 12.2. Noise performance and resolution There are two bits in the configuration register that allow changing the resolution of the MLX90640 measurements. Increasing the resolution decreases the quantization noise and improves the overall noise performance. Measurement conditions for the noise are: To=Ta=25 C NOTE: Due to the nature of the thermal infrared radiation, it is normal that the noise will decrease for high temperature and increase for lower temperatures Figure 20 MLX90640BAx noise vs refresh rate for different device types Not all pixels have the same noise performance. Because of the optical performance of the integrated lens, it is normal that the pixels in the corner of the frame are noisier in comparison with the sensors in the middle. The graphs bellow show the distribution of the noise performance versus the pixel position in the frame (pixel number) Figure 21 MLX90640BAA noise vs pixel and refresh rate at 1Hz and 2Hz Figure 22 MLX90640BAA noise vs pixel and refresh rate at 4Hz, 8Hz and 16Hz Page 50 of 60

51 Figure 23 MLX90640BAB noise vs pixel and refresh rate at 1Hz and 2Hz Figure 24 MLX90640BAB noise vs pixel and refresh rate at 4Hz, 8Hz and 16Hz NETD (K) 1Hz RMS noise (temperature equivalent), all pixels MLX90640 Average Min Standard deviation BAA BAB Table 14 Noise performance Page 51 of 60

MS4525HRD (High Resolution Digital)

MS4525HRD (High Resolution Digital) MS4525HRD (High Resolution Digital) Integrated Digital Pressure Sensor (24-bit Σ ADC) Fast Conversion Down to 1 ms Low Power, 1 µa (standby < 0.15 µa) Supply Voltage: 1.8 to 3.6V Pressure Range: 1 to 150

More information

PART TEMP RANGE PIN-PACKAGE

PART TEMP RANGE PIN-PACKAGE 9-0850; Rev 4; 6/0 Ω μ INT INT μ PART TEMP RANGE PIN-PACKAGE MAX7359ETG+ -40 C to +85 C 24 TQFN-EP* MAX7359EWA+ -40 C to +85 C 25 WLP * TOP VIEW AD0 GND IC COL0 8 7 6 5 4 3 INPUT +62V TO +36V V CC MAX7359

More information

MS4525HRD (High Resolution Digital) Integrated Digital Pressure Sensor (24-bit Σ ADC) Fast Conversion Down to 1 ms Low Power, 1 µa (standby < 0.15 µa)

MS4525HRD (High Resolution Digital) Integrated Digital Pressure Sensor (24-bit Σ ADC) Fast Conversion Down to 1 ms Low Power, 1 µa (standby < 0.15 µa) Integrated Digital Pressure Sensor (24-bit Σ ADC) Fast Conversion Down to 1 ms Low Power, 1 µa (standby < 0.15 µa) Supply Voltage: 1.8 to 3.6V Pressure Range: 1 to 150 PSI I 2 C and SPI Interface up to

More information

MLX x4 IR array Datasheet

MLX x4 IR array Datasheet Features and Benefits Small size, low cost 16x4 pixels IR array Easy to integrate Industry standard four lead TO39 package Factory calibrated infrared temperature measurement. alibration parameters stored

More information

Differential Pressure Sensor

Differential Pressure Sensor Differential Pressure Sensor MDP200 Series Features Pressure range up to ±500Pa with high accuracy of ±3.0% m.v. Pressure based on thermal micro-flow measurement Outstanding hysteresis and repeatability

More information

SUNSTR 传感与控制 General Description (continued) The results of the infrared sensor measurements are stored in RM: 16-bit result

SUNSTR 传感与控制   General Description (continued) The results of the infrared sensor measurements are stored in RM: 16-bit result SUNSTR 传感与控制 http://www.sensor-ic.com/ Features and Benefits Small size, low cost 16x4 pixels IR array Easy to integrate Industry standard four lead TO-39 package Factory calibrated infrared temperature

More information

RT9403. I 2 C Programmable High Precision Reference Voltage Generator. Features. General Description. Ordering Information.

RT9403. I 2 C Programmable High Precision Reference Voltage Generator. Features. General Description. Ordering Information. I 2 C Programmable High Precision Reference Voltage Generator General Description The RT9403 is a high precision reference voltage generating console consisting of three I 2 C programmable DACs. Each DAC

More information

MS BA01. PHT Combination Sensor SPECIFICATIONS

MS BA01. PHT Combination Sensor SPECIFICATIONS SPECIFICATIONS Integrated pressure, humidity and temperature sensor QFN package 5 x 3 x 1 mm 3 Operating range: 10 to 2000 mbar, 0%RH to 100%RH, -40 to 85 C High-resolution module: 0.016 mbar, 0.04%RH,

More information

MS BA01 PTH Fusion Sensor

MS BA01 PTH Fusion Sensor PRELIMINARY MS8607-02BA01 PTH Fusion Sensor Integrated pressure, temperature and humidity sensor QFN package 5 x 3 x 1 mm 3 Operating range: 10 to 2000 mbar, 0%RH to 100%RH, -40 to 85 C High-resolution

More information

ADVANCED INFORMATION MS4525HRD (High Resolution Digital)

ADVANCED INFORMATION MS4525HRD (High Resolution Digital) Integrated Digital Pressure Sensor (24-bit Σ ADC) Fast Conversion Down to 1 ms Low Power, 1 µa (standby < 0.15 µa) Supply Voltage: 1.8 to 3.6V Pressure Range: 1 to 150 PSI I 2 C and SPI Interface up to

More information

MS BA Micro Altimeter Module

MS BA Micro Altimeter Module High resolution module, 20cm Fast conversion down to ms Low power, µa (standby < 0.5 µa) QFN package 5.0 x 3.0 x.0 mm 3 Supply voltage.8 to 3.6 V Integrated digital pressure sensor (24 bit Σ AC) Operating

More information

MS BA Altimeter and diving pressure sensor

MS BA Altimeter and diving pressure sensor MS5803-07BA Altimeter and diving pressure sensor Excellent accuracy for both altimeter and diving applications until 70m depth Operating range: 0 to 7 bar, -20 to +85 C High resolution module, 0.4m air

More information

89BSD CALCULATION METHOD APPLICATION NOTE

89BSD CALCULATION METHOD APPLICATION NOTE FUNCTIONAL DESCRIPTION GENERAL The 89BSD consists of a piezoresistive sensor and a sensor interface IC. The main function of the sensor interface IC is to convert the uncompensated analogue output voltage

More information

INT RST TEMP RANGE PIN- PACKAGE TOP MARK PKG CODE PART. -40 C to +125 C -40 C to +125 C 16 QSOP E16-4 MAX7323AEE+ 16 TQFN-EP* 3mm x 3mm MAX7323ATE+

INT RST TEMP RANGE PIN- PACKAGE TOP MARK PKG CODE PART. -40 C to +125 C -40 C to +125 C 16 QSOP E16-4 MAX7323AEE+ 16 TQFN-EP* 3mm x 3mm MAX7323ATE+ 19-3806; Rev 1; 7/07 INT RST Ω μ PART MAX7323AEE+ MAX7323ATE+ * TEMP RANGE -40 C to +125 C -40 C to +125 C PIN- PACKAGE TOP MARK PKG CODE 16 QSOP E16-4 16 TQFN-EP* 3mm x 3mm ADE T1633-4 PART INPUTS INTERRUPT

More information

MS BA01 Miniature Altimeter Module

MS BA01 Miniature Altimeter Module High resolution module, 20 cm Fast conversion down to 0.5 ms Low power, 0.6 µa (standby < 0.15 µa at 25 C) Integrated digital pressure sensor (24 bit ΔΣ AC) Supply voltage 1.8 to 3.6 V Operating range:

More information

MS BA01 Variometer Module, with LCP cap

MS BA01 Variometer Module, with LCP cap High resolution module, 10 cm Fast conversion down to 1 ms Low power, 1 µa (standby < 0.15 µa) QFN package 5.0 x 3.0 x 1.7 mm 3 Supply voltage 1.8 to 3.6 V Integrated digital pressure sensor (24 bit ΔΣ

More information

MS BA Miniature 14 bar Module

MS BA Miniature 14 bar Module High resolution module, 0.2 mbar Fast conversion down to ms Low power, µa (standby < 0.5 µa) Integrated digital pressure sensor (24 bit ΔΣ AC) Supply voltage.8 to 3.6 V Operating range: 0 to 4 bar, -40

More information

NTE74HC299 Integrated Circuit TTL High Speed CMOS, 8 Bit Universal Shift Register with 3 State Output

NTE74HC299 Integrated Circuit TTL High Speed CMOS, 8 Bit Universal Shift Register with 3 State Output NTE74HC299 Integrated Circuit TTL High Speed CMOS, 8 Bit Universal Shift Register with 3 State Output Description: The NTE74HC299 is an 8 bit shift/storage register with three state bus interface capability

More information

HN58C256 Series word 8-bit Electrically Erasable and Programmable CMOS ROM

HN58C256 Series word 8-bit Electrically Erasable and Programmable CMOS ROM 32768-word 8-bit Electrically Erasable and Programmable CMOS ROM ADE-203-092G (Z) Rev. 7.0 Nov. 29, 1994 Description The Hitachi HN58C256 is a electrically erasable and programmable ROM organized as 32768-word

More information

3.3 V 64K X 16 CMOS SRAM

3.3 V 64K X 16 CMOS SRAM September 2006 Advance Information AS7C31026C 3.3 V 64K X 16 CMOS SRAM Features Industrial (-40 o to 85 o C) temperature Organization: 65,536 words 16 bits Center power and ground pins for low noise High

More information

HN58C65 Series word 8-bit Electrically Erasable and Programmable CMOS ROM

HN58C65 Series word 8-bit Electrically Erasable and Programmable CMOS ROM 8192-word 8-bit Electrically Erasable and Programmable CMOS ROM ADE-203-374A (Z) Rev. 1.0 Apr. 12, 1995 Description The Hitachi HN58C65 is a electrically erasable and programmable ROM organized as 8192-word

More information

HN58C66 Series word 8-bit CMOS Electrically Erasable and Programmable CMOS ROM. ADE F (Z) Rev. 6.0 Apr. 12, Description.

HN58C66 Series word 8-bit CMOS Electrically Erasable and Programmable CMOS ROM. ADE F (Z) Rev. 6.0 Apr. 12, Description. 8192-word 8-bit CMOS Electrically Erasable and Programmable CMOS ROM ADE-203-375F (Z) Rev. 6.0 Apr. 12, 1995 Description The Hitachi HN58C66 is a electrically erasable and programmable ROM organized as

More information

Low Voltage 2-1 Mux, Level Translator ADG3232

Low Voltage 2-1 Mux, Level Translator ADG3232 Low Voltage 2-1 Mux, Level Translator ADG3232 FEATURES Operates from 1.65 V to 3.6 V Supply Rails Unidirectional Signal Path, Bidirectional Level Translation Tiny 8-Lead SOT-23 Package Short Circuit Protection

More information

MS BA Miniature 30 bar Industrial Pressure Sensor

MS BA Miniature 30 bar Industrial Pressure Sensor SPECIFICATIONS High resolution module QFN package 3 x 3 x 0.9 mm 3 Supply voltage: 1.5 to 3.6 V Fast conversion down to 0.5 ms Low power, 0.6 µa (standby 0.1 µa at 25 C) Integrated digital pressure sensor

More information

3.3 V 256 K 16 CMOS SRAM

3.3 V 256 K 16 CMOS SRAM August 2004 AS7C34098A 3.3 V 256 K 16 CMOS SRAM Features Pin compatible with AS7C34098 Industrial and commercial temperature Organization: 262,144 words 16 bits Center power and ground pins High speed

More information

MS BA01 Miniature Altimeter Module

MS BA01 Miniature Altimeter Module High resolution module, 20 cm Fast conversion down to 0.5 ms Low power, 0.6 µa (standby < 0.15 µa at 25 C) Integrated digital pressure sensor (24 bit ΔΣ AC) Supply voltage 1.8 to 3.6 V Operating range:

More information

SPECIFICATION. Messrs. DATE 20 June, 2013 No. V AP4, AG4 Pressure Sensor

SPECIFICATION. Messrs. DATE 20 June, 2013 No. V AP4, AG4 Pressure Sensor DATE 20 June, 2013 No. Messrs. SPECIFICATION Model: AP4, AG4 Pressure Sensor Project: Distributor: Preliminary Edition rev. 1.00 This document has a possibility to be revised without notice. Reference:

More information

ATtiny bit AVR Microcontroller with 16K Bytes In-System Programmable Flash DATASHEET APPENDIX B. Appendix B ATtiny1634 Specification at 125 C

ATtiny bit AVR Microcontroller with 16K Bytes In-System Programmable Flash DATASHEET APPENDIX B. Appendix B ATtiny1634 Specification at 125 C ATtiny634 8-bit AVR Microcontroller with 6K Bytes In-System Programmable Flash Appendix B ATtiny634 Specification at 5 C DATASHEET APPENDIX B This document contains information specific to devices operating

More information

NTE74HC109 Integrated Circuit TTL High Speed CMOS, Dual J K Positive Edge Triggered Flip Flop w/set & Reset

NTE74HC109 Integrated Circuit TTL High Speed CMOS, Dual J K Positive Edge Triggered Flip Flop w/set & Reset NTE74HC109 Integrated Circuit TTL High Speed CMOS, Dual J K Positive Edge Triggered Flip Flop w/set & Reset Description: The NTE74HC109 is a dual J K flip flip with set and reset in a 16 Lead plastic DIP

More information

HN27C4096G/CC Series. Ordering Information. Features word 16-bit CMOS UV Erasable and Programmable ROM

HN27C4096G/CC Series. Ordering Information. Features word 16-bit CMOS UV Erasable and Programmable ROM 262144-word 16-bit CMOS UV Erasable and Programmable ROM The Hitachi HN27C4096G/CC is a 4-Mbit ultraviolet erasable and electrically programmable ROM, featuring high speed and low power dissipation. Fabricated

More information

ATmega16M1/32M1/32C1/64M1/64C1

ATmega16M1/32M1/32C1/64M1/64C1 ATmega16M1/32M1/32C1/64M1/64C1 Appendix A - Atmel ATmega16M1/ATmega32M1/ ATmega32C1/ATmega64M1/ATmega64C1 Automotive Specification at 150 C DATASHEET Description This document contains information specific

More information

5.0 V 256 K 16 CMOS SRAM

5.0 V 256 K 16 CMOS SRAM February 2006 5.0 V 256 K 16 CMOS SRAM Features Pin compatible with AS7C4098 Industrial and commercial temperature Organization: 262,144 words 16 bits Center power and ground pins High speed - 10/12/15/20

More information

74LVC574A Octal D-type flip-flop with 5-volt tolerant inputs/outputs; positive edge-trigger (3-State)

74LVC574A Octal D-type flip-flop with 5-volt tolerant inputs/outputs; positive edge-trigger (3-State) INTEGRATED CIRCUITS inputs/outputs; positive edge-trigger (3-State) 1998 Jul 29 FEATURES 5-volt tolerant inputs/outputs, for interfacing with 5-volt logic Supply voltage range of 2.7 to 3.6 Complies with

More information

5 V 64K X 16 CMOS SRAM

5 V 64K X 16 CMOS SRAM September 2006 A 5 V 64K X 16 CMOS SRAM AS7C1026C Features Industrial (-40 o to 85 o C) temperature Organization: 65,536 words 16 bits Center power and ground pins for low noise High speed - 15 ns address

More information

32K x 8 EEPROM - 5 Volt, Byte Alterable

32K x 8 EEPROM - 5 Volt, Byte Alterable 32K x 8 EEPROM - 5 Volt, Byte Alterable Description The is a high performance CMOS 32K x 8 E 2 PROM. It is fabricated with a textured poly floating gate technology, providing a highly reliable 5 Volt only

More information

LV5217GP. Specifications. Bi-CMOS IC 3ch LED Driver. Absolute Maximum Ratings at Ta = 25 C. Ordering number : ENA0833A.

LV5217GP. Specifications. Bi-CMOS IC 3ch LED Driver. Absolute Maximum Ratings at Ta = 25 C. Ordering number : ENA0833A. Ordering number : ENA0833A LV5217GP Bi-CMOS IC 3ch LED Driver Overview This LV5217GP is 3-channel LED driver for cell phones. Each LED driver current can be adjusted by I2C bus. LV5217GP can perform various

More information

74LVC823A 9-bit D-type flip-flop with 5-volt tolerant inputs/outputs; positive-edge trigger (3-State)

74LVC823A 9-bit D-type flip-flop with 5-volt tolerant inputs/outputs; positive-edge trigger (3-State) INTEGRATED CIRCUITS inputs/outputs; positive-edge trigger (3-State) 1998 Sep 24 FEATURES 5-volt tolerant inputs/outputs, for interfacing with 5-volt logic Supply voltage range of 2.7V to 3.6V Complies

More information

NTE40194B Integrated Circuit CMOS, 4 Bit Bidirectional Universal Shift Register

NTE40194B Integrated Circuit CMOS, 4 Bit Bidirectional Universal Shift Register NTE4194B Integrated Circuit CMOS, 4Bit Bidirectional Universal Shift Register Description: The NTE4194B is a universal shift register in a 16Lead DIP type package featuring parallel inputs, parallel outputs

More information

5-V Low Drop Fixed Voltage Regulator TLE

5-V Low Drop Fixed Voltage Regulator TLE 5-V Low Drop Fixed Voltage Regulator TLE 427-2 Features Output voltage tolerance ±2% 65 ma output current capability Low-drop voltage Reset functionality Adjustable reset time Suitable for use in automotive

More information

S-5841 Series TEMPERATURE SWITCH IC (THERMOSTAT IC) Features. Applications. Packages. Seiko Instruments Inc. 1.

S-5841 Series TEMPERATURE SWITCH IC (THERMOSTAT IC) Features. Applications. Packages. Seiko Instruments Inc. 1. S-5841 Series www.sii-ic.com Seiko Instruments Inc., 2007-2012 Rev.2.1_00 The S-5841 Series is a temperature switch IC (thermostat IC) which detects the temperature with a temperature accuracy of ±2.5

More information

NTE74HC173 Integrated Circuit TTL High Speed CMOS, 4 Bit D Type Flip Flop with 3 State Outputs

NTE74HC173 Integrated Circuit TTL High Speed CMOS, 4 Bit D Type Flip Flop with 3 State Outputs NTE74HC173 Integrated Circuit TTL High Speed CMOS, 4 Bit D Type Flip Flop with 3 State Outputs Description: The NTE74HC173 is an high speed 3 State Quad D Type Flip Flop in a 16 Lead DIP type package that

More information

ATtiny87/ATtiny167. Appendix A - ATtiny87/ATtiny167 Automotive Specification at 150 C DATASHEET. Description

ATtiny87/ATtiny167. Appendix A - ATtiny87/ATtiny167 Automotive Specification at 150 C DATASHEET. Description ATtiny87/ATtiny167 Appendix A - ATtiny87/ATtiny167 Automotive Specification at 150 C DATASHEET Description This document contains information specific to devices operating at temperatures up to 150 C.

More information

74F402 Serial Data Polynomial Generator/Checker

74F402 Serial Data Polynomial Generator/Checker Serial Data Polynomial Generator/Checker General Description The 74F402 expandable Serial Data Polynomial generator/ checker is an expandable version of the 74F401. It provides an advanced tool for the

More information

SGM800 Low-Power, SOT µp Reset Circuit with Capacitor-Adjustable Reset Timeout Delay

SGM800 Low-Power, SOT µp Reset Circuit with Capacitor-Adjustable Reset Timeout Delay GENERAL DESCRIPTION The low-power micro-processor supervisor circuit monitors system voltages from 1.6V to 5V. This device performs a single function: it asserts a reset signal whenever the V CC supply

More information

SGM802 Low-Power, SC70/SOT µp Reset Circuit with Capacitor-Adjustable Reset Timeout Delay

SGM802 Low-Power, SC70/SOT µp Reset Circuit with Capacitor-Adjustable Reset Timeout Delay Low-Power, SC70/SOT µp Reset Circuit with GENERAL DESCRIPTION The low-power micro-processor supervisor circuit monitors system voltages from 1.6V to 5V. This device performs a single function: it asserts

More information

74F174 Hex D-Type Flip-Flop with Master Reset

74F174 Hex D-Type Flip-Flop with Master Reset 74F174 Hex D-Type Flip-Flop with Master Reset General Description The 74F174 is a high-speed hex D-type flip-flop. The device is used primarily as a 6-bit edge-triggered storage register. The information

More information

INTEGRATED CIRCUITS. 74LVC138A 3-to-8 line decoder/demultiplexer; inverting. Product specification 1998 Apr 28

INTEGRATED CIRCUITS. 74LVC138A 3-to-8 line decoder/demultiplexer; inverting. Product specification 1998 Apr 28 INTEGRATED CIRCUITS -to-8 line decoder/demultiplexer; inverting 998 Apr 8 FEATURES Wide supply voltage range of. to. V In accordance with JEDEC standard no. 8-A Inputs accept voltages up to. V CMOS lower

More information

S-1000 Series ULTRA-SMALL PACKAGE HIGH-PRECISION VOLTAGE DETECTOR. Features. Applications. Packages. Seiko Instruments Inc. 1.

S-1000 Series ULTRA-SMALL PACKAGE HIGH-PRECISION VOLTAGE DETECTOR. Features. Applications. Packages. Seiko Instruments Inc. 1. S-1000 Series www.sii-ic.com ULTRA-SMALL PACKAGE HIGH-PRECISION VOLTAGE DETECTOR Seiko Instruments Inc., 2004-2015 Rev.3.1_00 The S-1000 series is a series of high-precision voltage detectors developed

More information

HN27C1024HG/HCC Series

HN27C1024HG/HCC Series 65536-word 16-bit CMOS UV Erasable and Programmable ROM Description The Hitachi HN27C1024H series is a 1-Mbit (64-kword 16-bit) ultraviolet erasable and electrically programmable ROM. Fabricated on new

More information

Digital Temperature Sensor and Thermal Watchdog with 2-Wire Interface

Digital Temperature Sensor and Thermal Watchdog with 2-Wire Interface 19-4385; Rev 0; 3/09 Digital Temperature Sensor and Thermal General Description The temperature sensor includes a delta-sigma analog-to-digital converter, and a digital overtemperature detector. The host

More information

PRELIMINARY. Resolution (OSR=8192) 0.2 mbar Accuracy 0 C to +40 C, mbar. 0 to 6 bar (2) Response time (1)

PRELIMINARY. Resolution (OSR=8192) 0.2 mbar Accuracy 0 C to +40 C, mbar. 0 to 6 bar (2) Response time (1) Ceramic - metal package, 3.3 x 3.3 x 2.75mm High-resolution module 0.2 mbar Fast conversion down to 0.5 ms Low power, 0.6 µa (standby < 0.1 µa at 25 C) Integrated digital pressure sensor (24 bit ΔΣ AC)

More information

74F379 Quad Parallel Register with Enable

74F379 Quad Parallel Register with Enable 74F379 Quad Parallel Register with Enable General Description The 74F379 is a 4-bit register with buffered common Enable. This device is similar to the 74F175 but features the common Enable rather than

More information

74HC574; 74HCT574. Octal D-type flip-flop; positive edge-trigger; 3-state

74HC574; 74HCT574. Octal D-type flip-flop; positive edge-trigger; 3-state Rev. 7 4 March 2016 Product data sheet 1. General description 2. Features and benefits 3. Ordering information The is an 8-bit positive-edge triggered D-type flip-flop with 3-state outputs. The device

More information

MAX31855 Cold-Junction Compensated Thermocouple-to-Digital Converter

MAX31855 Cold-Junction Compensated Thermocouple-to-Digital Converter 19-5793; Rev 0; 3/11 General Description The performs cold-junction compensation and digitizes the signal from a K, J, N, T, or E type thermocouple. (Contact the factory for S and R type thermocouples.)

More information

onlinecomponents.com

onlinecomponents.com 54AC299 54ACT299 8-Input Universal Shift/Storage Register with Common Parallel I/O Pins General Description The AC/ ACT299 is an 8-bit universal shift/storage register with TRI-STATE outputs. Four modes

More information

ABLIC Inc., Rev.2.2_02

ABLIC Inc., Rev.2.2_02 S-5841 Series www.ablicinc.com TEMPERATURE SWITCH IC (THERMOSTAT IC) ABLIC Inc., 2007-2015 Rev.2.2_02 The S-5841 Series is a temperature switch IC (thermostat IC) which detects the temperature with a temperature

More information

74F579 8-Bit Bidirectional Binary Counter with 3-STATE Outputs

74F579 8-Bit Bidirectional Binary Counter with 3-STATE Outputs April 1988 Revised October 2000 74F579 8-Bit Bidirectional Binary Counter with 3-STATE Outputs General Description The 74F579 is a fully synchronous 8-stage up/down counter with multiplexed 3-STATE I/O

More information

I2 C Compatible Digital Potentiometers AD5241/AD5242

I2 C Compatible Digital Potentiometers AD5241/AD5242 a Preliminary Technical ata FEATURES Position Potentiometer Replacement 0K, 00K, M, Ohm Internal Power ON Mid-Scale Preset +. to +.V Single-Supply; ±.V ual-supply Operation I C Compatible Interface APPLICATIONS

More information

5 8 LED MAX6950/MAX6951 MAX6950/MAX6951 SPI TM QSPI TM MICROWIRE TM 7 LED LED 2.7V MAX LED MAX LED 16 (0-9 A-F) RAM 16 7 LED LED

5 8 LED MAX6950/MAX6951 MAX6950/MAX6951 SPI TM QSPI TM MICROWIRE TM 7 LED LED 2.7V MAX LED MAX LED 16 (0-9 A-F) RAM 16 7 LED LED 19-2227; Rev 1; 12/01 +2.7V SPI TM QSPI TM MICROWIRE TM 7 2.7V MAX6950 5 7 40 MAX6951 8 7 64 16 (0-9 A-F) RAM 16 7 EMI ( 1 8 ) 26MHz SPI/QSPI/MICROWIRE +2.7V 16 / EMI 75µA ( ) 16 QSOP PART TEMP. RANGE

More information

NTE74HC165 Integrated Circuit TTL High Speed CMOS, 8 Bit Parallel In/Serial Out Shift Register

NTE74HC165 Integrated Circuit TTL High Speed CMOS, 8 Bit Parallel In/Serial Out Shift Register NTE74HC165 Integrated Circuit TTL High Speed CMOS, 8 Bit Parallel In/Serial Out Shift Register Description: The NTE74HC165 is an 8 bit parallel in/serial out shift register in a 16 Lead DIP type package

More information

Product Description. TMP01: Low Power, Programmable Temperature Controller (Temperature Sensor)

Product Description. TMP01: Low Power, Programmable Temperature Controller (Temperature Sensor) TMP0: Low Power, Programmable Temperature Controller (Temperature Sensor) Product Description The TMP0 is a temperature sensor which generates a voltage output proportional to absolute temperature and

More information

Dual Low Dropout Voltage Regulator

Dual Low Dropout Voltage Regulator Dual Low Dropout Voltage Regulator TLE 4473 GV55-2 Features Stand-by output 190 ma; 5 V ± 2% Main output: 300 ma, 5 V tracked to the stand-by output Low quiescent current consumption Disable function separately

More information

SGM48000/1/2 High Speed, Dual Power MOSFET Drivers

SGM48000/1/2 High Speed, Dual Power MOSFET Drivers SGM000// GENERAL DESCRIPTION The SGM000// ICs are matched dual-drivers. Unique circuit design provides very high speed drivers capable of delivering peak currents of A into highly capacitive loads. Improved

More information

Distributed by: www.jameco.com 1-800-831-4242 The content and copyrights of the attached material are the property of its owner. September 2001 S7C256 5V/3.3V 32K X 8 CMOS SRM (Common I/O) Features S7C256

More information

5-V Low Drop Voltage Regulator TLE 4290

5-V Low Drop Voltage Regulator TLE 4290 5-V Low Drop Voltage Regulator TLE 429 Features Output voltage 5 V ± 2% Very low current consumption 45 ma current capability Power Good Feature Very low-drop voltage Short-circuit-proof Reverse polarity

More information

SGM nA, Single Rail-to-Rail I/O Operational Amplifier

SGM nA, Single Rail-to-Rail I/O Operational Amplifier GENERAL DESCRIPTION The SGM8041 is guaranteed to operate with a single supply voltage as low as 1.4V, while drawing less than 710nA (TYP) of quiescent current. This device is also designed to support rail-to-rail

More information

5-V Low Drop Fixed Voltage Regulator TLE 4275

5-V Low Drop Fixed Voltage Regulator TLE 4275 5-V Low Drop Fixed Voltage Regulator TLE 4275 Features Output voltage 5 V ± 2% Very low current consumption Power-on and undervoltage reset Reset low down to V Q = 1 V Very low-drop voltage Short-circuit-proof

More information

LME series digital low differential pressure sensors

LME series digital low differential pressure sensors The LME differential low pressure sensors are based on thermal flow measurement of gas through a micro-flow channel integrated within the sensor chip. The innovative LME technology features superior sensitivity

More information

INTEGRATED CIRCUITS. 74LV stage binary ripple counter. Product specification 1998 Jun 23 IC24 Data Handbook

INTEGRATED CIRCUITS. 74LV stage binary ripple counter. Product specification 1998 Jun 23 IC24 Data Handbook INTEGRATED CIRCUITS 1998 Jun 23 IC24 Data Handbook FEATURES Optimized for Low Voltage applications: 1.0 to 5.5V Accepts TTL input levels between V CC = 2.7V and V CC = 3.6V Typical V OLP (output ground

More information

SPECIFICATION FOR LCD MODULE MODULE NO: AMC2004A-SPI REVISION NO: 00. Customer s Approval:

SPECIFICATION FOR LCD MODULE MODULE NO: AMC2004A-SPI REVISION NO: 00. Customer s Approval: SPECIFICATION FOR LCD MODULE MODULE NO: REVISION NO: 00 Customer s Approval: PREPARED BY (RD ENGINEER) CHECKED BY APPROVED BY SIGNATURE DATE DOCUMENT REVISION HISTORY: DATE PAGE DESCRIPTION 2013.2 - First

More information

Multichannel Brake Infrared Temperature Sensor - Datasheet

Multichannel Brake Infrared Temperature Sensor - Datasheet The Izze-Racing Multichannel Brake Infrared Temperature Sensor is specifically designed to measure the highly transient surface temperature of a brake rotor at multiple points, making it possible to acquire

More information

LH5P832. CMOS 256K (32K 8) Pseudo-Static RAM

LH5P832. CMOS 256K (32K 8) Pseudo-Static RAM LH5P832 CMOS 256K (32K 8) Pseudo-Static RAM FEATURES 32,768 8 bit organization Access time: 100/120 ns (MAX.) Cycle time: 160/190 ns (MIN.) Power consumption: Operating: 357.5/303 mw Standby: 16.5 mw TTL

More information

MAX Cold-Junction Compensated Thermocouple-to-Digital Converter ABSOLUTE MAXIMUM RATINGS. PACKAGE THERMAL CHARACTERISTICS (Note 1)

MAX Cold-Junction Compensated Thermocouple-to-Digital Converter ABSOLUTE MAXIMUM RATINGS. PACKAGE THERMAL CHARACTERISTICS (Note 1) AVAILABLE General Description The performs cold-junction compensation and digitizes the signal from a K-, J-, N-, T-, S-, R-, or E-type thermocouple. The data is output in a signed 14-bit, SPI-compatible,

More information

Data byte 0 Data byte 1 Data byte 2 Data byte 3 Data byte 4. 0xA Register Address MSB data byte Data byte Data byte LSB data byte

Data byte 0 Data byte 1 Data byte 2 Data byte 3 Data byte 4. 0xA Register Address MSB data byte Data byte Data byte LSB data byte SFP200 CAN 2.0B Protocol Implementation Communications Features CAN 2.0b extended frame format 500 kbit/s Polling mechanism allows host to determine the rate of incoming data Registers The SFP200 provides

More information

8-bit binary counter with output register; 3-state

8-bit binary counter with output register; 3-state Rev. 01 30 March 2005 Product data sheet 1. General description 2. Features 3. Quick reference data The is a high-speed Si-gate CMOS device and is pin compatible with Low power Schottky TTL (LSTTL). It

More information

SRAM & FLASH Mixed Module

SRAM & FLASH Mixed Module 128K x 16 SRAM & 512K x 16 FLASH SRAM / FLASH MEMORY ARRAY SRAM & FLASH PIN ASSIGNMENT (Top View) 68 Lead CQFP (QT) FEATURES Operation with single 5V supply High speed: 35ns SRAM, 90ns FLASH Built in decoupling

More information

5-stage Johnson decade counter

5-stage Johnson decade counter Rev. 06 5 November 2009 Product data sheet 1. General description The is a with ten spike-free decoded active HIGH outputs (Q0 to Q9), an active LOW carry output from the most significant flip-flop (Q5-9),

More information

Period/Frequency Output

Period/Frequency Output / General Description The / are low-cost, low-current temperature sensors with a single-wire output. The converts the ambient temperature into a square wave with a period proportional to absolute temperature

More information

μp Supervisory Circuits

μp Supervisory Circuits MAX6351 MAX636 General Description The MAX6351 MAX636 microprocessor (μp) supervisors with multiple reset voltages significantly improve system reliability and accuracy compared to separate ICs or discrete

More information

INTEGRATED CIRCUITS. PCK2002P 533 MHz PCI-X clock buffer. Product data Supersedes data of 2001 May Dec 13. Philips Semiconductors

INTEGRATED CIRCUITS. PCK2002P 533 MHz PCI-X clock buffer. Product data Supersedes data of 2001 May Dec 13. Philips Semiconductors INTEGRATED CIRCUITS Supersedes data of 2001 May 09 2002 Dec 13 Philips Semiconductors FEATURES General purpose and PCI-X 1:4 clock buffer 8-pin TSSOP package See PCK2001 for 48-pin 1:18 buffer part See

More information

Digital Current Transducer HO-SW series I P N = A. Ref: HO 100-SW; HO 150-SW; HO 200-SW; HO 250-SW

Digital Current Transducer HO-SW series I P N = A. Ref: HO 100-SW; HO 150-SW; HO 200-SW; HO 250-SW Digital Current Transducer HO-SW series I P N = 100... 250 A Ref: HO 100-SW; HO 150-SW; HO 200-SW; HO 250-SW Bitstream output from on onboard Sigma Delta modulator. For the electronic measurement of current:

More information

MS BA Miniature 30 bar Module

MS BA Miniature 30 bar Module High resolution module, 0.5 mbar Fast conversion down to ms Low power, µa (standby < 0.5 µa) Integrated digital pressure sensor (24 bit Σ AC) Supply voltage.8 to 3.6 V Operating range: 0 to 30 bar, -40

More information

74ACT825 8-Bit D-Type Flip-Flop

74ACT825 8-Bit D-Type Flip-Flop 8-Bit D-Type Flip-Flop General Description The ACT825 is an 8-bit buffered register. They have Clock Enable and Clear features which are ideal for parity bus interfacing in high performance microprogramming

More information

74F194 4-Bit Bidirectional Universal Shift Register

74F194 4-Bit Bidirectional Universal Shift Register 74F194 4-Bit Bidirectional Universal Shift Register General Description The 74F194 is a high-speed 4-bit bidirectional universal shift register. As a high-speed, multifunctional, sequential building block,

More information

SGM48753 CMOS Analog Switch

SGM48753 CMOS Analog Switch GENERAL DESCRIPTION The is a CMOS analog IC configured as three single-pole/double-throw (SPDT) switches. This CMOS device can operate from 2.5V to 5.5V single supplies. Each switch can handle rail-to-rail

More information

PYA28C16 2K X 8 EEPROM FEATURES PIN CONFIGURATIONS DESCRIPTION FUNCTIONAL BLOCK DIAGRAM. Access Times of 150, 200, 250 and 350ns

PYA28C16 2K X 8 EEPROM FEATURES PIN CONFIGURATIONS DESCRIPTION FUNCTIONAL BLOCK DIAGRAM. Access Times of 150, 200, 250 and 350ns PYA28C16 2K X 8 EEPROM FEATURES Access Times of 150, 200, 250 and 350ns Single 5V±10% Power Supply Fast Byte Write (200µs or 1 ms) Low Power CMOS: - 60 ma Active Current - 150 µa Standby Current Endurance:

More information

INTEGRATED CIRCUITS. 74LV273 Octal D-type flip-flop with reset; positive-edge trigger. Product specification 1997 Apr 07 IC24 Data Handbook

INTEGRATED CIRCUITS. 74LV273 Octal D-type flip-flop with reset; positive-edge trigger. Product specification 1997 Apr 07 IC24 Data Handbook INTEGRATED CIRCUITS Octal D-type flip-flop with reset; positive-edge trigger 1997 Apr 07 IC24 Data Handbook FEATURES Wide operating voltage: 1.0 to 5.5V Optimized for Low Voltage applications: 1.0 to 3.6V

More information

DESCRIPTION DECODER I/O DATA CIRCUIT CONTROL CIRCUIT

DESCRIPTION DECODER I/O DATA CIRCUIT CONTROL CIRCUIT 512K x 16 HIGH SPEED ASYNCHRONOUS CMOS STATIC RAM WITH 3.3V SUPPLY SEPTEMBER 2005 FEATURES High-speed access time: 8, 10, and 12 ns CMOS low power operation Low stand-by power: Less than 5 ma (typ.) CMOS

More information

HM6264A Series. Features. Ordering Information word 8-bit High Speed CMOS Static RAM

HM6264A Series. Features. Ordering Information word 8-bit High Speed CMOS Static RAM 8192-word 8-bit High Speed CMOS Static RAM Features Low-power standby 0.1 mw (typ) 10 µw (typ) L-/LL-version Low power operation 15 mw/mhz (typ) Fast access time l00/120/ (max) Single +5 V supply Completely

More information

9-Channel 64steps Constant-Current LED Driver with SPI Control. Features

9-Channel 64steps Constant-Current LED Driver with SPI Control. Features BCT3119 with SPI Control General Description The BCT3119 is a constant current driver incorporating shift register and data latch. This CMOS device is designed for LED display applications. The max output

More information

SERIALLY PROGRAMMABLE CLOCK SOURCE. Features

SERIALLY PROGRAMMABLE CLOCK SOURCE. Features DATASHEET ICS307-03 Description The ICS307-03 is a dynamic, serially programmable clock source which is flexible and takes up minimal board space. Output frequencies are programmed via a 3-wire SPI port.

More information

3.3V Power Supply Isolated Current Sensor with Common Mode Field Rejection

3.3V Power Supply Isolated Current Sensor with Common Mode Field Rejection Fully Integrated Current Sensor IC 3.3V Power Supply Isolated Current Sensor with Common Mode Field Rejection Description The Senko Micro s provides economical and precise solutions for AC or DC current

More information

74F393 Dual 4-bit binary ripple counter

74F393 Dual 4-bit binary ripple counter INTEGRATED CIRCUITS 1988 Nov 01 IC15 Data Handbook FEATURES Two 4-bit binary counters Two Master Resets to clear each 4-bit counter individually PIN CONFIGURATION CPa 1 MRa 2 14 13 V CC CPb DESCRIPTION

More information

DATA SHEET. Thermocouple module with digital I²C-Interface - THMOD-I²C. Characteristic features. Areas of application. Features.

DATA SHEET. Thermocouple module with digital I²C-Interface - THMOD-I²C. Characteristic features. Areas of application. Features. Description Characteristic features Industrial temperature measuring method Wide measuring range, -270...+1360 C Digital I²C-interface Simple integration to micro-controller Scope of supply with thermocouple,

More information

HCF4035B 4 STAGE PARALLEL IN/PARALLEL OUT SHIFT REGISTER

HCF4035B 4 STAGE PARALLEL IN/PARALLEL OUT SHIFT REGISTER 4 STAGE PARALLEL IN/PARALLEL OUT SHIFT REGISTER 4 STAGE CLOCKED SHIFT OPERATION SYNCHRONOUS PARALLEL ENTRY ON ALL 4 STAGES JK INPUTS ON FIRST STAGE ASYNCHRONOUS TRUE/COMPLEMENT CONTROL ON ALL OUTPUTS STATIC

More information

(those temperatures are just for example)

(those temperatures are just for example) MLX061 1 Scope he MLX061 sensors have a build in emissivity compensation function which allows the customer to change the emissivity coefficient without the need of recalibration. he aim of this document

More information

74F175 Quad D-Type Flip-Flop

74F175 Quad D-Type Flip-Flop Quad D-Type Flip-Flop General Description The 74F175 is a high-speed quad D-type flip-flop. The device is useful for general flip-flop requirements where clock and clear inputs are common. The information

More information

AME. µprocessor Supervisory AME8501. n General Description. n Application. n Typical Application. n Features. n Functional Block Diagram

AME. µprocessor Supervisory AME8501. n General Description. n Application. n Typical Application. n Features. n Functional Block Diagram n General Description The family allows the user to customize the CPU reset function without any external components. The user has a large choice of reset voltage thresholds, reset time intervals, and

More information

Isolated Current Sensor with Common Mode Field Rejection

Isolated Current Sensor with Common Mode Field Rejection Fully Integrated Current Sensor IC Isolated Current Sensor with Common Mode Field Rejection Description The Senko Micro s SC810 provides economical and precise solutions for AC or DC current sensing in

More information

Infrared Tire Temperature Sensor, IRTS-V2 - Datasheet

Infrared Tire Temperature Sensor, IRTS-V2 - Datasheet The Izze-Racing tire temperature sensor is specifically designed to measure the highly transient surface temperature of a tire with spatial fidelity, providing invaluable information for chassis tuning,

More information